mhurhangee/ep-ind-claims huggingface dataset:
Partial light module for a motor vehicle lighting device comprising a planar illuminant and a free-form lens (5, 50), which free-form lens (5, 50) has at least two optically active surfaces - a light entry surface (51, 501, 5010) and a planar light exit surface (52, 502) - wherein the free-form lens (5, 50) is decentered with respect to a reference axis extending substantially parallel to the optical axis (6, 60) of the free-form lens (5, 50) and is arranged for imaging a partial light distribution in the form of a radiation cone in front of the partial light module (3, 30), the radiation cone having a radiation cone axis which does not run parallel to the reference axis and to the optical axis (6, 60), the reference axis being assigned to the planar luminous means in such a way that it is aligned with a main radiation direction of the planar luminous means, that it coincides with a main radiation direction of the planar light means and extends substantially perpendicular to a light-emitting surface of the planar light means, the planar light-emitting surface (52, 502) is arranged substantially parallel to the planar light means, the partial light module (3, 30) is a light module of a direct-imaging projection type; the free-form lens (5, 50) is formed as a projection lens; characterized in that the light entrance surface (51, 501, 5010) is formed as a saddle surface and is adapted to collect the light in the vertical direction and to expand it in the horizontal direction; and the planar illuminating means is arranged in a focal surface of the projection lens (5, 50), and the partial light distribution is adapted to form an apron light distribution. the partial light module (3, 30) is a light module of a direct-imaging projection type; the free-form lens (5, 50) is formed as a projection lens; characterized in that the light entrance surface (51, 501, 5010) is formed as a saddle surface and is adapted to collect the light in the vertical direction and to expand it in the horizontal direction; and the planar illuminating means is arranged in a focal surface of the projection lens (5, 50), and the partial light distribution is adapted to form an apron light distribution.
A method for wireless communication, comprising: receiving a contention exempt broadcast paging message comprising partial paging information for a user equipment, UE, over a shared radio frequency spectrum band during a contention exempt transmission, CET, period and concurrent with a reception of a broadcast discovery reference signal, DRS, characterized by: transmitting, in response to the received contention exempt broadcast paging message, a random access request message; and receiving, based on the transmitted random access request, a unicast paging message comprising complete paging information for the UE. transmitting, in response to the received contention exempt broadcast paging message, a random access request message; and receiving, based on the transmitted random access request, a unicast paging message comprising complete paging information for the UE.
An inflatable retention system for an enteral feeding tube having a base configured to be deployed outside the human body and an indwelling retainer which is configured to be deployed within a lumen of the body by insertion through a stoma from outside the body, the retention system comprising: a tube having a proximal end, a distal end, an external tube diameter, and tube walls defining a feeding lumen and an inflation lumen; and an inflatable balloon located at a distal end of the tube in fluid communication with the inflation lumen, the balloon having thin, flexible walls, the balloon having a predetermined oblate spheroid shape, characterized by a reserve volume having a lower limit that is greater than 0.5 milliliters of a fluid and an upper limit at a transition between a non-distended state and a distended state of the balloon in which a fluid in the balloon is under no pressure and a predetermined fill volume about 1.01 to about 1.5 times greater than an upper limit of the reserve volume such that upon inflation with a fluid to pressurize fluid in the balloon, the balloon assumes a stable oblate spheroid shape and exhibits a substantially linear pressure versus volume curve to at least the predetermined fill volume, the ratio of the diameter of the balloon along its minor axis to the diameter of the balloon along its major axis is from 0.45 to 0.65. a tube having a proximal end, a distal end, an external tube diameter, and tube walls defining a feeding lumen and an inflation lumen; and an inflatable balloon located at a distal end of the tube in fluid communication with the inflation lumen, the balloon having thin, flexible walls, the balloon having a predetermined oblate spheroid shape, characterized by a reserve volume having a lower limit that is greater than 0.5 milliliters of a fluid and an upper limit at a transition between a non-distended state and a distended state of the balloon in which a fluid in the balloon is under no pressure and a predetermined fill volume about 1.01 to about 1.5 times greater than an upper limit of the reserve volume such that upon inflation with a fluid to pressurize fluid in the balloon, the balloon assumes a stable oblate spheroid shape and exhibits a substantially linear pressure versus volume curve to at least the predetermined fill volume, the ratio of the diameter of the balloon along its minor axis to the diameter of the balloon along its major axis is from 0.45 to 0.65.
A device, comprising: one or more microphones; and one or more processors in communication with the one or more microphones, the one or more processors being configured to: determine a background noise level; smooth the determined background noise level by applying a weight factor to the determined background noise level; calculate, based on the smoothed noise level, a volume gain; compare the calculated volume gain to a threshold gain: and apply the calculated volume gain to increase or decrease a playback volume of the device when the calculated volume gain is less than the threshold gain, wherein the weight factor is larger for a first transition from a first background noise level to a second background noise level than a second transition from a third background noise level to a fourth background noise level, the first transition being quicker than the second transition. one or more microphones; and one or more processors in communication with the one or more microphones, the one or more processors being configured to: determine a background noise level; smooth the determined background noise level by applying a weight factor to the determined background noise level; calculate, based on the smoothed noise level, a volume gain; compare the calculated volume gain to a threshold gain: and apply the calculated volume gain to increase or decrease a playback volume of the device when the calculated volume gain is less than the threshold gain, wherein the weight factor is larger for a first transition from a first background noise level to a second background noise level than a second transition from a third background noise level to a fourth background noise level, the first transition being quicker than the second transition. determine a background noise level; smooth the determined background noise level by applying a weight factor to the determined background noise level; calculate, based on the smoothed noise level, a volume gain; compare the calculated volume gain to a threshold gain: and apply the calculated volume gain to increase or decrease a playback volume of the device when the calculated volume gain is less than the threshold gain, wherein the weight factor is larger for a first transition from a first background noise level to a second background noise level than a second transition from a third background noise level to a fourth background noise level, the first transition being quicker than the second transition.
Method for assessing solar cells with one or more light sources, wherein the one or more light sources are fastened to a fastening device, wherein the one or more light sources are fastened movably to the fastening device and/or a light intensity control is present, with which the light intensity of each light source can be changed independently of the light intensity of the other light sources, with a camera which is fastened to the fastening device, wherein the method comprises the following steps, the fastening device is aligned relative to solar cells using the camera in such a way that the camera axis of the camera is perpendicular relative to the surface of the solar cells to be assessed, the one or more light sources are aligned in such a way and/or the light intensity of the one or more light sources are controlled in such a way that the solar cells to be assessed are illuminated as uniformly as possible, following the illumination that is as uniform as possible, a photo of the solar cells to be assessed is taken with the camera, the solar cells are assessed using the photo.
A method comprising: computing a first error-detecting code, EDC, based on a first segment of a block of information that is to be encoded and a second EDC based on at least a second segment of the block of information; masking the first EDC with a first masking segment and the second EDC with a second masking segment to generate a first masked EDC and a second masked EDC, the first masking segment and the second masking segment being associated with a target receiver of the block of information; generating a codeword based on a code and an input vector that includes the first segment, the first masked EDC, the second segment, and the second masked EDC, wherein the code is a polar code; and transmitting the codeword; wherein the first masking segment and the second masking segment are based on an Radio Network Temporary Identifier, RNTI, associated with the target receiver; and wherein the first masking segment comprises a first part of the RNTI, and the second masking segment comprises a second part of the RNTI. computing a first error-detecting code, EDC, based on a first segment of a block of information that is to be encoded and a second EDC based on at least a second segment of the block of information; masking the first EDC with a first masking segment and the second EDC with a second masking segment to generate a first masked EDC and a second masked EDC, the first masking segment and the second masking segment being associated with a target receiver of the block of information; generating a codeword based on a code and an input vector that includes the first segment, the first masked EDC, the second segment, and the second masked EDC, wherein the code is a polar code; and transmitting the codeword; wherein the first masking segment and the second masking segment are based on an Radio Network Temporary Identifier, RNTI, associated with the target receiver; and wherein the first masking segment comprises a first part of the RNTI, and the second masking segment comprises a second part of the RNTI.
A photo medical system for treating target eye tissue, comprising: a light source for generating a beam of light; a scanner assembly adapted to translate the beam to form a pattern of spots of the light; a focusing element adapted to focus the pattern of spots on the target tissue; a controller adapted to control the scanner assembly; and a graphical user interface connected to the controller that includes a display for displaying a plurality of different configurations of patterns of spots to choose from, including the pattern of spots, in response to an activation of the display, characterized in that the pattern of spots comprises at least a first sub-pattern of spots (P 1) and a second sub-pattern of spots (P 2); and the controller is configured to control the scanner assembly, based on a selection of the pattern of spots displayed in the graphical user interface, to form the pattern of spots on the target tissue by interlacing together the first (P 1) and second (P 2) sub-patterns of spots. a light source for generating a beam of light; a scanner assembly adapted to translate the beam to form a pattern of spots of the light; a focusing element adapted to focus the pattern of spots on the target tissue; a controller adapted to control the scanner assembly; and a graphical user interface connected to the controller that includes a display for displaying a plurality of different configurations of patterns of spots to choose from, including the pattern of spots, in response to an activation of the display, the pattern of spots comprises at least a first sub-pattern of spots (P 1) and a second sub-pattern of spots (P 2); and the controller is configured to control the scanner assembly, based on a selection of the pattern of spots displayed in the graphical user interface, to form the pattern of spots on the target tissue by interlacing together the first (P 1) and second (P 2) sub-patterns of spots.
An enhanced flexibility auxiliary endoscope assembly for use with an endoscope, the assembly comprising: at least one flexible elongate element (122, 130) having an outer cross-section having a diameter; and a flexible sleeve having a first lumen for accommodating a distal portion of an endoscope capable of assuming at least a first curvature and a second lumen for accommodating said at least one flexible elongate element, said second lumen having a generally saddle shaped cross section being configured to allow said at least one flexible elongate element to assume said at least first curvature as well as at least a second curvature about said first curvature, thereby to enhance flexibility of said auxiliary endoscope assembly, said second lumen adapted to enable the at least one flexible elongate element to be slidably displaced laterally in accordance with the first curvature, and characterised in that it is further configured to define, along a portion of the elongate extent thereof, an elongate element transverse displacement accommodating volume having a transverse extent at least twice as long as said diameter of said outer cross section of said flexible elongate element. at least one flexible elongate element (122, 130) having an outer cross-section having a diameter; and a flexible sleeve having a first lumen for accommodating a distal portion of an endoscope capable of assuming at least a first curvature and a second lumen for accommodating said at least one flexible elongate element, said second lumen having a generally saddle shaped cross section being configured to allow said at least one flexible elongate element to assume said at least first curvature as well as at least a second curvature about said first curvature, thereby to enhance flexibility of said auxiliary endoscope assembly, said second lumen adapted to enable the at least one flexible elongate element to be slidably displaced laterally in accordance with the first curvature, and characterised in that it is further configured to define, along a portion of the elongate extent thereof, an elongate element transverse displacement accommodating volume having a transverse extent at least twice as long as said diameter of said outer cross section of said flexible elongate element.
A liquid concentrate for beverages, comprising: acid; flavoring; buffer; at least 0.5 percent alcohol by weight; water activity in the range of 0.6 to 1; and wherein the acid and buffer are provided in a weight ratio range of 1:1 to 4000: 1, and wherein the concentrate has a pH in the range of 1.7 to 2.4. acid; flavoring; buffer; at least 0.5 percent alcohol by weight; water activity in the range of 0.6 to 1; and wherein the acid and buffer are provided in a weight ratio range of 1:1 to 4000: 1, and wherein the concentrate has a pH in the range of 1.7 to 2.4.
A light emitting device comprising: a transmissive substrate; an ohmic layer on the transmissive substrate; an adhesive layer disposed between the ohmic layer and the transmissive substrate; a reflective layer disposed on the adhesive layer; a light emitting structure on the transparent ohmic layer and including a first conductive semiconductor layer, a second conductive semiconductor layer, and an active layer between the first and second semiconductor layers (130, 150); an electrode layer on a bottom surface of the transmissive substrate; a conductive via electrically connecting the light emitting structure with the electrode layer through the transmissive substrate; an electrode disposed on a top surface of the light emitting structure; and a protective member disposed on a peripheral portion of the top surface of the light emitting structure and a lateral surface of the light emitting structure; wherein the ohmic layer and the reflective layer are selectively formed on the adhesive layer; and wherein the conductive via is electrically connected to the ohmic layer. a transmissive substrate; an ohmic layer on the transmissive substrate; an adhesive layer disposed between the ohmic layer and the transmissive substrate; a reflective layer disposed on the adhesive layer; a light emitting structure on the transparent ohmic layer and including a first conductive semiconductor layer, a second conductive semiconductor layer, and an active layer between the first and second semiconductor layers (130, 150); an electrode layer on a bottom surface of the transmissive substrate; a conductive via electrically connecting the light emitting structure with the electrode layer through the transmissive substrate; an electrode disposed on a top surface of the light emitting structure; and a protective member disposed on a peripheral portion of the top surface of the light emitting structure and a lateral surface of the light emitting structure; wherein the ohmic layer and the reflective layer are selectively formed on the adhesive layer; and wherein the conductive via is electrically connected to the ohmic layer.
A method of producing a mung bean protein composition having a measurement value according to the Folin-Denis method of 1.39% by weight or less in terms of gallic acid on a dry matter basis and a crude protein content of 60% by weight or more on a dry matter basis, the method comprising heat-treating a solution containing mung bean protein at 80°C to 160°C for 2 seconds to 60 minutes, wherein the mung bean protein has been extracted from mung beans which have been dehusked to remove 90% or more of the husks.
A process for forming an electro-optic display, the process comprising: providing a front assembly comprising, in order, a light-transmissive electrically-conductive layer; a layer of a solid electro-optic medium in electrical contact with the electrically-conductive layer; and an adhesive layer; removing the electro-optic medium and the adhesive layer from a portion of the front assembly, thereby providing a connection area wherein the electrically-conductive layer is exposed free from the electro-optic medium and the adhesive layer; forming a conductive via on the connection area; providing a backplane comprising at least one pixel electrode and at least one contact pad electrically isolated from the at least one pixel electrode; and laminating the front assembly to the backplane so that the adhesive layer adheres to the backplane with the electro-optic medium disposed adjacent the at least one pixel electrode and the conductive via in electrical contact with the at least one contact pad, so that the electrically-conductive layer is electrically via the conductive connected to the at least one contact pad via the conductive via. providing a front assembly comprising, in order, a light-transmissive electrically-conductive layer; a layer of a solid electro-optic medium in electrical contact with the electrically-conductive layer; and an adhesive layer; removing the electro-optic medium and the adhesive layer from a portion of the front assembly, thereby providing a connection area wherein the electrically-conductive layer is exposed free from the electro-optic medium and the adhesive layer; forming a conductive via on the connection area; providing a backplane comprising at least one pixel electrode and at least one contact pad electrically isolated from the at least one pixel electrode; and laminating the front assembly to the backplane so that the adhesive layer adheres to the backplane with the electro-optic medium disposed adjacent the at least one pixel electrode and the conductive via in electrical contact with the at least one contact pad, so that the electrically-conductive layer is electrically via the conductive connected to the at least one contact pad via the conductive via.
A method, comprising: providing by a network server to one or more clusters (1, 2) coordination instructions comprising results of managing at least one predetermined parameter among the one or more clusters (1, 2), each cluster (1, 2) of the one or more clusters comprising a plurality of access points (14, 16) wirelessly communicating directly with user equipments and including a local cluster coordinator for coordinating a self-coordinated performance within said each cluster of the one or more clusters (1, 2) and reporting the self-coordinated performance to the network server; and monitoring by the network server the self-coordinated performance of the one or more clusters (1, 2) individually from the reporting by each said local cluster coordinator, wherein the local cluster coordinator of said each cluster of the one or more clusters (1, 2) is configured to coordinate performance of the access points based at least in part on the coordination instructions, the coordination of the performance of said each cluster of the one or more clusters at least comprising simultaneous coordinated multi-point operation within said each cluster of the one or more clusters (1, 2) and interference management. providing by a network server to one or more clusters (1, 2) coordination instructions comprising results of managing at least one predetermined parameter among the one or more clusters (1, 2), each cluster (1, 2) of the one or more clusters comprising a plurality of access points (14, 16) wirelessly communicating directly with user equipments and including a local cluster coordinator for coordinating a self-coordinated performance within said each cluster of the one or more clusters (1, 2) and reporting the self-coordinated performance to the network server; and monitoring by the network server the self-coordinated performance of the one or more clusters (1, 2) individually from the reporting by each said local cluster coordinator, wherein the local cluster coordinator of said each cluster of the one or more clusters (1, 2) is configured to coordinate performance of the access points based at least in part on the coordination instructions, the coordination of the performance of said each cluster of the one or more clusters at least comprising simultaneous coordinated multi-point operation within said each cluster of the one or more clusters (1, 2) and interference management.