mhurhangee/ep-ind-claims huggingface dataset:
A method of performing cell selection in a wireless communication system for reducing an initial acquisition time between a user equipment, UE, and a network entity, comprising: measuring a signal from a cell; determining whether one or more measurements of the signal pass or fail a cell selection criteria check that includes a plurality of cell selection threshold values, the plurality of cell selection threshold values being included in at least one successfully decoded system information block, SIB, of the signal; determining, in response to the cell selection criteria check failing, whether one or more of the plurality of cell selection threshold values is within range of a corresponding one of a plurality of corresponding minimum network threshold values based on a plurality of corresponding range control threshold values, wherein the determining comprises determining, for one or more of the plurality of cell selection threshold values, whether an absolute value of the cell selection threshold value plus the corresponding minimum network threshold value is less than or equal to the corresponding range control threshold value, the minimum network threshold values based on absolute minimum values for Qqualmin and Qrxlevmin that a network operator or vendor established; and performing a cell selection procedure on the cell in response to determining that one or more of the plurality of cell selection threshold values is within range of the plurality of corresponding minimum network threshold values. measuring a signal from a cell; determining whether one or more measurements of the signal pass or fail a cell selection criteria check that includes a plurality of cell selection threshold values, the plurality of cell selection threshold values being included in at least one successfully decoded system information block, SIB, of the signal; determining, in response to the cell selection criteria check failing, whether one or more of the plurality of cell selection threshold values is within range of a corresponding one of a plurality of corresponding minimum network threshold values based on a plurality of corresponding range control threshold values, wherein the determining comprises determining, for one or more of the plurality of cell selection threshold values, whether an absolute value of the cell selection threshold value plus the corresponding minimum network threshold value is less than or equal to the corresponding range control threshold value, the minimum network threshold values based on absolute minimum values for Qqualmin and Qrxlevmin that a network operator or vendor established; and performing a cell selection procedure on the cell in response to determining that one or more of the plurality of cell selection threshold values is within range of the plurality of corresponding minimum network threshold values.
A sensing module for configuring on a vibrating machine or structure, including a pump, comprising: sensors; an outer shell configured with a recessed portion; a base having encapsulated electronics (18b, 18c, 18d, 18f) with a multicol ored light array that is arranged inside the outer shell, the multicolored light array being configured to respond to signaling containing information about a condition being sensed or monitored by the sensing module and to provide along a projection axis at least one beam of light containing information about the condition; characterized in that a domed lens is configured in the recessed portion of the outer shell, and it comprises a bottom surface and a middle lens portion having a top curved surface and two side lens portions (14b, 14c) with side surfaces (14b', 14c') to reflect, re-reflect and project the at least one beam as a lens illumination or glow having multiple beams of light rays (R 1, R 2, R 3, R 4, R 5) outwardly from the domed lens in relation to the projection axis with a visibility of 360° about the sensing module. an outer shell configured with a recessed portion; a base having encapsulated electronics (18b, 18c, 18d, 18f) with a multicol ored light array that is arranged inside the outer shell, the multicolored light array being configured to respond to signaling containing information about a condition being sensed or monitored by the sensing module and to provide along a projection axis at least one beam of light containing information about the condition; characterized in that a domed lens is configured in the recessed portion of the outer shell, and it comprises a bottom surface and a middle lens portion having a top curved surface and two side lens portions (14b, 14c) with side surfaces (14b', 14c') to reflect, re-reflect and project the at least one beam as a lens illumination or glow having multiple beams of light rays (R 1, R 2, R 3, R 4, R 5) outwardly from the domed lens in relation to the projection axis with a visibility of 360° about the sensing module.
An ice making apparatus for making ice of the nugget-forming type from ice shavings that are compacted, comprising: (a) a refrigeration system for providing refrigerant to a freezing chamber of the hollow cylinder type; (b) a freezing chamber with a generally hollow cylindrical inner wall and means for receiving water (therein for forming ice on said cylindrical inner wall; (c) a rotatable ice auger (72, 272) sized to fit inside said freezing chamber and comprising means for scraping ice formed on the wall of said chamber and conveying the ice from the wall of said chamber, along said rotatable auger, to ice compression means; (d) means to cause rotation of said ice auger (72, 272); (e) means for supplying water to said freezing chamber; (f) ice compression means for receiving ice from said freezing chamber and compressing it into compacted solid form while squeezing water therefrom; (g) said ice compression means including a flange carried by said auger (72, 272) for rotation therewith and extending generally radially outwardly thereof; characterized in further comprising: (h) ice breakup means (113, 133) located adjacent said rotatable flange, said ice breakup means (113, 133) being statically positioned relative to said rotatable flange, whereby moving compacted solid form ice is contacted by said ice breakup means (113, 133); and (i) said ice compression means including paddle means carried by said rotatable auger (72, 272) adjacent said flange at said discharge end of said rotatable auger (72, 272), for cooperating with said flange to form and push ice into compacted solid form ice at the discharge end of the auger (72, 272). (a) a refrigeration system for providing refrigerant to a freezing chamber of the hollow cylinder type; (b) a freezing chamber with a generally hollow cylindrical inner wall and means for receiving water (therein for forming ice on said cylindrical inner wall; (c) a rotatable ice auger (72, 272) sized to fit inside said freezing chamber and comprising means for scraping ice formed on the wall of said chamber and conveying the ice from the wall of said chamber, along said rotatable auger, to ice compression means; (d) means to cause rotation of said ice auger (72, 272); (e) means for supplying water to said freezing chamber; (f) ice compression means for receiving ice from said freezing chamber and compressing it into compacted solid form while squeezing water therefrom; (g) said ice compression means including a flange carried by said auger (72, 272) for rotation therewith and extending generally radially outwardly thereof; (h) ice breakup means (113, 133) located adjacent said rotatable flange, said ice breakup means (113, 133) being statically positioned relative to said rotatable flange, whereby moving compacted solid form ice is contacted by said ice breakup means (113, 133); and (i) said ice compression means including paddle means carried by said rotatable auger (72, 272) adjacent said flange at said discharge end of said rotatable auger (72, 272), for cooperating with said flange to form and push ice into compacted solid form ice at the discharge end of the auger (72, 272).
An electrical switch comprising: • a switch mechanism that is housed in an insulating base that is open at the front, at least in part; • a mounting frame that is stationary relative to the insulating base and that presents an access opening for accessing the switch mechanism; and • a control button that comprises firstly a front portion that is engaged through the access opening of the mounting frame so as to be user-accessible, and secondly mounting means that tilt on said mounting frame about at least two distinct axes (A1, A2, A3, A4, A5, A6, A7, A8), so as to be movable between a stable rest position and at least two actuation positions of the switch mechanism; said mounting means comprise at least two teeth that project from the edge of said front portion and, when the control button is in its rest position, are engaged in two grooves that are provided at the rear of the mounting frame. • a switch mechanism that is housed in an insulating base that is open at the front, at least in part; • a mounting frame that is stationary relative to the insulating base and that presents an access opening for accessing the switch mechanism; and • a control button that comprises firstly a front portion that is engaged through the access opening of the mounting frame so as to be user-accessible, and secondly mounting means that tilt on said mounting frame about at least two distinct axes (A1, A2, A3, A4, A5, A6, A7, A8), so as to be movable between a stable rest position and at least two actuation positions of the switch mechanism;
A method comprising: receiving audio content; processing the received audio content to separate the audio content into a first part of audio content and a second part of audio content; converting the second part of the audio content into visual content; delaying the first part of the audio content based on a time relationship between the audio content and the visual content, the delaying accounting for the time to process the received audio content and convert the second part of the audio content, the time relationship based on generating a time stamp for the visual content that is based on the second part of the audio content and generating a time stamp for the first part of the audio content; and providing the visual content for display on a display in conjunction with providing the first part of the audio content for audible reproduction. receiving audio content; processing the received audio content to separate the audio content into a first part of audio content and a second part of audio content; converting the second part of the audio content into visual content; delaying the first part of the audio content based on a time relationship between the audio content and the visual content, the delaying accounting for the time to process the received audio content and convert the second part of the audio content, the time relationship based on generating a time stamp for the visual content that is based on the second part of the audio content and generating a time stamp for the first part of the audio content; and providing the visual content for display on a display in conjunction with providing the first part of the audio content for audible reproduction.
A staple cartridge (242, 642), comprising: a plurality of staples; and a cartridge body (285, 685), comprising: a proximal end; a distal end; a tissue-contacting deck (290, 690); a plurality of staple cavities (284, 684), wherein a said staple is positioned in each said staple cavity, and wherein each said staple cavity comprises a staple cavity opening; and a plurality of ridges (215, 615) extending from said tissue-contacting deck, characterized in that each said ridge extends along a path which extends across more than one staple cavity opening, and wherein each of the more than one staple cavity openings extends upwardly through the ridges. a plurality of staples; and a cartridge body (285, 685), comprising: a proximal end; a distal end; a tissue-contacting deck (290, 690); a plurality of staple cavities (284, 684), wherein a said staple is positioned in each said staple cavity, and wherein each said staple cavity comprises a staple cavity opening; and a plurality of ridges (215, 615) extending from said tissue-contacting deck, characterized in that each said ridge extends along a path which extends across more than one staple cavity opening, and wherein each of the more than one staple cavity openings extends upwardly through the ridges. a proximal end; a distal end; a tissue-contacting deck (290, 690); a plurality of staple cavities (284, 684), wherein a said staple is positioned in each said staple cavity, and wherein each said staple cavity comprises a staple cavity opening; and a plurality of ridges (215, 615) extending from said tissue-contacting deck, characterized in that each said ridge extends along a path which extends across more than one staple cavity opening, and wherein each of the more than one staple cavity openings extends upwardly through the ridges.
A heat exchanger with a core which has flow channels arranged parallel to one another and which can receive a throughflow of a medium to be cooled in at least two passages (2a, 2b) in opposite directions, wherein a bypass channel for the supply of the medium, which can receive a throughflow of the medium to be cooled, is associated with the first passage, characterised in that the bypass channel is, in particular, partially or completely integrated into the heat exchanger and the heat exchanger has at least one side part, arranged parallel to the flow channels, which is designed as a flow channel and can receive a throughflow as bypass.
A kit for quantitatively determining a substance to be measured in a biological sample, the kit comprising: fluorescent particles that have a first binding substance capable of binding to the substance to be measured; and a substrate that has a detection region having a second binding substance, wherein the substance to be measured includes at least three types of substances having different structures, and the first binding substance includes at least three types of binding substances which are capable of binding to the at least three types of substances having different structures, respectively, wherein the second binding substance is capable of binding to the at least three types of binding substances of the first binding substance or is capable of binding to the substance to be measured, and each fluorescent particle of the fluorescent particles has the at least three types of binding substances. fluorescent particles that have a first binding substance capable of binding to the substance to be measured; and a substrate that has a detection region having a second binding substance, wherein the substance to be measured includes at least three types of substances having different structures, and the first binding substance includes at least three types of binding substances which are capable of binding to the at least three types of substances having different structures, respectively, wherein the second binding substance is capable of binding to the at least three types of binding substances of the first binding substance or is capable of binding to the substance to be measured, and each fluorescent particle of the fluorescent particles has the at least three types of binding substances.
A sport device for determining heart rate, characterized in that the sport device comprises: means for measuring a biosignal via a measuring interface wherein the measuring interface comprises the skin of the living object and several measurement electrodes (322,332) for measuring a biosignal from the skin of the living object and wherein the impedance of the measuring interface is dependent on the moisture of the skin of the living object; means for applying (352, 354, 356) a plurality of test input impedances to the electrodes (322, 332); means for determining a response of a biosignal characteristic to the test input impedances from the biosignal, wherein the response comprises at least voltage level or signal-to-interference ratio of the biosignal; and means for setting (352, 354, 356) a usage input impedance on the basis of the response. means for measuring a biosignal via a measuring interface wherein the measuring interface comprises the skin of the living object and several measurement electrodes (322,332) for measuring a biosignal from the skin of the living object and wherein the impedance of the measuring interface is dependent on the moisture of the skin of the living object; means for applying (352, 354, 356) a plurality of test input impedances to the electrodes (322, 332); means for determining a response of a biosignal characteristic to the test input impedances from the biosignal, wherein the response comprises at least voltage level or signal-to-interference ratio of the biosignal; and means for setting (352, 354, 356) a usage input impedance on the basis of the response.
An ion exchange membrane in which an ion exchange resin is filled in the spaces of porous base film, wherein the porous base film has a thickness of 80 to 250 μm and has a structure that at least two porous olefin resin layers are laminated with a bonding strength of 0.98 N/cm (100 gf/cm) or more to less than 6.86 N/cm (700 gf/cm) and a Gurley air permeance of 500 sec/100 ml or less in terms of a 100 μm thick film, and wherein said porous base film is obtainable by stretch-forming a laminate of porous olefin resin films.
An implantable mesh comprising a plurality of biodegradable mesh fibers; and a plurality of demineralized bone fibers mechanically entangled into the implantable mesh; wherein the plurality of demineralized bone fibers comprises from about 20% (w/w) to about 60% (w/w) of the implantable mesh; wherein the demineralized bone fibers are mechanically entangled into the implantable mesh by needle punching; and wherein, after entanglement, the implantable mesh comprises 1% (w/w) or less of a carrier or binding agent.
A method for evaluating surface defects of a substrate to be bonded, the method sequentially comprising the steps of: (step A) preparing a mirror-polished single crystal silicon substrate; (step B) inspecting surface defects on the mirror-polished single crystal silicon substrate; (step C) depositing a polycrystalline silicon layer on a surface of the single crystal silicon substrate subjected to the defect inspection; (step D) performing mirror edge polishing to the single crystal silicon substrate having the polycrystalline silicon layer deposited thereon; (step E) polishing a surface of the polycrystalline silicon layer; (step F) inspecting surface defects on the polished polycrystalline silicon layer; and (step G) comparing coordinates of defects detected at the step of inspecting the surface defects on the single crystal silicon substrate with counterparts detected at the step of inspecting the surface defects on the polycrystalline silicone layer and determining quality of the single crystal silicon substrate having the polycrystalline silicon layer as a substrate to be bonded on the basis of presence/absence of defects present at the same position. (step A) preparing a mirror-polished single crystal silicon substrate; (step B) inspecting surface defects on the mirror-polished single crystal silicon substrate; (step C) depositing a polycrystalline silicon layer on a surface of the single crystal silicon substrate subjected to the defect inspection; (step D) performing mirror edge polishing to the single crystal silicon substrate having the polycrystalline silicon layer deposited thereon; (step E) polishing a surface of the polycrystalline silicon layer; (step F) inspecting surface defects on the polished polycrystalline silicon layer; and (step G) comparing coordinates of defects detected at the step of inspecting the surface defects on the single crystal silicon substrate with counterparts detected at the step of inspecting the surface defects on the polycrystalline silicone layer and determining quality of the single crystal silicon substrate having the polycrystalline silicon layer as a substrate to be bonded on the basis of presence/absence of defects present at the same position.
Cleaning pistol, in particular for a high-pressure cleaner, comprising a housing with a flow channel, a flow directing device and an actuating device, the flow channel having an inlet and an outlet, the flow directing device being arranged at least partially in the flow channel, the flow directing device being designed in such a way a fluid flow through the flow channel from the inlet to the outlet can take place on different flow routes, including at least a first flow route and a second flow route, the actuating device being designed for actuating the flow directing device and thereby controlling the fluid flow through the different flow routes, wherein the flow directing device comprises a closing piston, wherein the flow directing device comprises a valve device, wherein the valve device comprises a ball with a spring wherein the first flow route leads through an intermediate space between the ball and the closing piston, wherein the cleaning pistol is designed such that the first flow route surrounds the second flow route and/or the second flow route surrounds the first flow route.
A photosensitive lithographic printing plate comprising: a hydrophilic support; a photosensitive layer; and a protective layer in this order, wherein the photosensitive layer contains a compound having an ethylenically unsaturated double bond and a polymer binder, and the protective layer includes at least two layers each containing water-soluble resin, wherein at least one of the layers included in the protective layer contains a polyvinyl alcohol and wherein at least one of the layers included in the protective layer contains polyester or polyurethane.