mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a network control entity for enabling access to a plurality of wireless tags in a wireless communications network , wherein the wireless communications network comprises two or more access points, APs , the method comprising: allocating a unique frequency shift (Δf n ) to each wireless tag from said plurality of wireless tags , respectively, wherein the allocated frequency shift (Δf n ) is to be used by at least two wireless tags from said plurality of wireless tags when reflecting the second radio signal using the first transmitted radio frequency signal; configuring at least one first AP to transmit a first radio frequency signal, with frequency f, in a first time period (TS#3); and configuring at least one second AP to receive, in the first time period (TS#3), at least one second radio signal reflected from the at least two wireless tags using the transmitted first radio frequency signal, wherein the configuring further comprises: configuring the at least one second AP to allocate two subsets of frequency resources (f-Δf n , f+Δf n ) within a determined set of frequency resources (ΔF) to the at least two wireless tags in the first time period (TS#3), and configuring the at least one second AP to receive, in the first time period (TS#3), the at least one second radio signal reflected from the at least two wireless tags in at least one of the allocated two subsets of frequency resources (f-Δf n , f+Δf n ). allocating a unique frequency shift (Δf n ) to each wireless tag from said plurality of wireless tags , respectively, wherein the allocated frequency shift (Δf n ) is to be used by at least two wireless tags from said plurality of wireless tags when reflecting the second radio signal using the first transmitted radio frequency signal; configuring at least one first AP to transmit a first radio frequency signal, with frequency f, in a first time period (TS#3); and configuring at least one second AP to receive, in the first time period (TS#3), at least one second radio signal reflected from the at least two wireless tags using the transmitted first radio frequency signal, wherein the configuring further comprises: configuring the at least one second AP to allocate two subsets of frequency resources (f-Δf n , f+Δf n ) within a determined set of frequency resources (ΔF) to the at least two wireless tags in the first time period (TS#3), and configuring the at least one second AP to receive, in the first time period (TS#3), the at least one second radio signal reflected from the at least two wireless tags in at least one of the allocated two subsets of frequency resources (f-Δf n , f+Δf n ). configuring the at least one second AP to allocate two subsets of frequency resources (f-Δf n , f+Δf n ) within a determined set of frequency resources (ΔF) to the at least two wireless tags in the first time period (TS#3), and configuring the at least one second AP to receive, in the first time period (TS#3), the at least one second radio signal reflected from the at least two wireless tags in at least one of the allocated two subsets of frequency resources (f-Δf n , f+Δf n ).
A cassette push plate locking device, comprising: a cassette push plate disposed in a cassette ; and a locking lever that is movable by switching of a cassette door ; a locking unit comprising a torque limiter that allows the cassette push plate to move over a predetermined force and prevents the cassette push plate from moving under the predetermined force, a bracket comprising a protruding part inserted into a locking lever groove of the locking lever and having one end coupled to the locking unit ; and a locking bracket selectively coupled to and released from the locking unit that moves by the movement of the locking lever ; and an interlocking unit that is coupled to the other end of the bracket and interlocked with rotation of the locking unit , and simultaneously, interlocked with rotation of a push plate driving unit that drives the cassette push plate characterized in that the locking unit further comprises: a locking part engaged with the locking bracket ; and a locking pulley interlocked with the interlocking unit through a belt, and the torque limiter is disposed between the locking part and the locking pulley to couple the locking part to the locking pulley under the predetermined force and decouple the locking part from the locking pulley over the predetermined force. a cassette push plate disposed in a cassette ; and a locking lever that is movable by switching of a cassette door ; a locking unit comprising a torque limiter that allows the cassette push plate to move over a predetermined force and prevents the cassette push plate from moving under the predetermined force, a bracket comprising a protruding part inserted into a locking lever groove of the locking lever and having one end coupled to the locking unit ; and a locking bracket selectively coupled to and released from the locking unit that moves by the movement of the locking lever ; and an interlocking unit that is coupled to the other end of the bracket and interlocked with rotation of the locking unit , and simultaneously, interlocked with rotation of a push plate driving unit that drives the cassette push plate characterized in that the locking unit further comprises: a locking part engaged with the locking bracket ; and a locking pulley interlocked with the interlocking unit through a belt, and the torque limiter is disposed between the locking part and the locking pulley to couple the locking part to the locking pulley under the predetermined force and decouple the locking part from the locking pulley over the predetermined force. a locking part engaged with the locking bracket ; and a locking pulley interlocked with the interlocking unit through a belt, and the torque limiter is disposed between the locking part and the locking pulley to couple the locking part to the locking pulley under the predetermined force and decouple the locking part from the locking pulley over the predetermined force.
A medical device for measuring blood pressure, comprising: a proximal shaft including a proximal lumen extending through the proximal shaft; a distal member defining a distal lumen extending through the distal member, the distal lumen aligned with the proximal lumen and including a distal lumen inner surface; a distal cap secured to the distal member, the distal cap including a distal cap inner surface defining a void space ; an optical pressure sensor disposed within the void space within the distal cap; and a fiber optic cable coupled to the optical pressure sensor and extending proximally through the distal lumen and the proximal lumen, the fiber optic cable having an outer surface; wherein a tolerance between the outer surface of the fiber optic cable and the inner surface of the distal lumen inner surface limits relative radial movement of the optical pressure sensor relative to the distal cap inner surface such that the optical pressure sensor is constrained from contacting the distal cap inner surface, characterized in that : the tolerance being in the range of about 0.005 mm to about 0.05 mm. a proximal shaft including a proximal lumen extending through the proximal shaft; a distal member defining a distal lumen extending through the distal member, the distal lumen aligned with the proximal lumen and including a distal lumen inner surface; a distal cap secured to the distal member, the distal cap including a distal cap inner surface defining a void space ; an optical pressure sensor disposed within the void space within the distal cap; and a fiber optic cable coupled to the optical pressure sensor and extending proximally through the distal lumen and the proximal lumen, the fiber optic cable having an outer surface; wherein a tolerance between the outer surface of the fiber optic cable and the inner surface of the distal lumen inner surface limits relative radial movement of the optical pressure sensor relative to the distal cap inner surface such that the optical pressure sensor is constrained from contacting the distal cap inner surface, characterized in that : the tolerance being in the range of about 0.005 mm to about 0.05 mm.
An oligomer or polymer characterized in, that said oligomer or polymer is obtained by reacting at least one monomeric, oligomeric or polymeric isocyanate having two or more isocyanate groups with 2-hydroxy-3-butenoic acid and/or at least one alkyl ester of 2-hydroxy-3-butenoic acid.
Composition comprising a) an antimicrobial agent, which is 4,4'-dichloro-2'-hydroxy-diphenylether, and b) a polyethylenimine. a) an antimicrobial agent, which is 4,4'-dichloro-2'-hydroxy-diphenylether, and b) a polyethylenimine.
Stator for a directly driven wind turbine generator, comprising stator segments , which are arranged in the circumferential direction, and a stator support that comprises at least two flanges which are arranged so as to run in parallel and on which the stator segments are positioned, wherein openings are provided in the flanges , wherein each stator segment is secured to the flanges by securing devices, characterized in that the securing devices each contain a cavity on a segment support of the stator segment ; in that only one intermediate piece of a plurality of intermediate pieces , which are adapted to the contour of the cavities and have differently arranged holes , is inserted in each of the cavities ; and in that an alignment pin , which is inserted in the hole of the intermediate piece and in one of the openings of the flange , is in each case provided in order to adjust the air gap of the wind turbine generator. the securing devices each contain a cavity on a segment support of the stator segment ; in that only one intermediate piece of a plurality of intermediate pieces , which are adapted to the contour of the cavities and have differently arranged holes , is inserted in each of the cavities ; and in that an alignment pin , which is inserted in the hole of the intermediate piece and in one of the openings of the flange , is in each case provided in order to adjust the air gap of the wind turbine generator.
Biocompatible implant made from a titanium alloy which, with exclusion of aluminium (Al), vanadium (V), cobalt (Co), chromium (Cr), nickel (Ni) and tin (Zn) as alloying elements, comprises the following alloying constituents in % by weight besides unavoidable trace quantities of impurities which are present in the alloying constituents or were incorporated during production: a) 0.2% to 1.5% of oxygen , b) 0.1% to 1.5% of iron (Fe), c) 0.01% to 2% of carbon (C), d) less than 0.5% of silicon (Si), e) optionally additionally less than 1% of gold (Au) and/or less than 1% of niobium (Nb) and/or less than 1% of molybdenum (Mo) and/or less than 1% of zirconium (Zr) and/or less than 1.5% of nitrogen (N) and/or less than 0.2% of hydrogen (H), f) the remainder being titanium (Ti). a) 0.2% to 1.5% of oxygen , b) 0.1% to 1.5% of iron (Fe), c) 0.01% to 2% of carbon (C), d) less than 0.5% of silicon (Si), e) optionally additionally less than 1% of gold (Au) and/or less than 1% of niobium (Nb) and/or less than 1% of molybdenum (Mo) and/or less than 1% of zirconium (Zr) and/or less than 1.5% of nitrogen (N) and/or less than 0.2% of hydrogen (H), f) the remainder being titanium (Ti).
An electronic device comprising: a flexible display (260; 360); a wireless communication circuit ; a housing (210; 250); a support structure configured to roll the flexible display (260; 360); a proximity sensor disposed in the housing (210; 250); at least one sensor disposed inside the housing (210; 250); a processor operably connected to the flexible display, the wireless communication circuit , and the proximity sensor ; and a memory operably connected to the processor , wherein the memory stores instructions that, when executed, cause the processor to: detect, using the at least one sensor, a degree of rotation of the support structure ; determine an effective size of an exposed area of the flexible display (260; 360) based on the degree of rotation, wherein the exposed area is deformed to a flat surface; determine a type of the electronic device based at least in part on the determined effective size; detect, using the proximity sensor, a distance between the electronic device and an external object; and adjust a transmission power of the wireless communication circuit based at least in part on the determined type of the electronic device and the detected distance. a flexible display (260; 360); a wireless communication circuit ; a housing (210; 250); a support structure configured to roll the flexible display (260; 360); a proximity sensor disposed in the housing (210; 250); at least one sensor disposed inside the housing (210; 250); a processor operably connected to the flexible display, the wireless communication circuit , and the proximity sensor ; and a memory operably connected to the processor , wherein the memory stores instructions that, when executed, cause the processor to: detect, using the at least one sensor, a degree of rotation of the support structure ; determine an effective size of an exposed area of the flexible display (260; 360) based on the degree of rotation, wherein the exposed area is deformed to a flat surface; determine a type of the electronic device based at least in part on the determined effective size; detect, using the proximity sensor, a distance between the electronic device and an external object; and adjust a transmission power of the wireless communication circuit based at least in part on the determined type of the electronic device and the detected distance. detect, using the at least one sensor, a degree of rotation of the support structure ; determine an effective size of an exposed area of the flexible display (260; 360) based on the degree of rotation, wherein the exposed area is deformed to a flat surface; determine a type of the electronic device based at least in part on the determined effective size; detect, using the proximity sensor, a distance between the electronic device and an external object; and adjust a transmission power of the wireless communication circuit based at least in part on the determined type of the electronic device and the detected distance.
Reactive composition comprising between 60 % and 98 % by weight of sodium bicarbonate, between 1 % and 12 % by weight of sodium carbonate, between 0.02 % and 2.0 % by weight of ammonia and from 0.01 to 5 % by weight of a compound selected from fatty acids having 12 to 20 carbon atoms per molecule or a salt thereof, wherein the ammonia expressed in the form of ammonium ions NH 4 + is determined by transforming all the ammonia species (NH 4 Cl, NH 4 HCO 3 , sodium carbamate, ammonium carbamate) in a product sample into acidic form of NH 4 + , and then potentiometric titration of NH 4 + with NaClO in a bicarbonate assay medium according the following reaction : 2 NH 4 + + NaClO → NaCl + 2H + +3 H 2 O + N 2 wherein for this determination 5 g of the product sample is dissolved into 50 ml of deionized water in presence of methyl orange as pH indicator (pH 3.1-4.4), acidified with H 2 SO 4 2N down to orange colour change, then 50 ml of a saturated solution with sodium bicarbonate is added, and the point of equivalence when adding a NaClO solution of 0.2N, is determined by potentiometry.
Process for hardening a coating (L1, L2, L3) of a solar collector element , the element including a conductive material or a conductive layer, the process comprising the step of providing the coating (L1, L2, L3) on the conductive material or the conductive layer by a sol-gel method and of hardening said coating (L1, L2, L3) by induction heating, and the process being characterized in that a portion of the coating (L1, L2, L3) is heated selectively from the inside of the coating to the outside of the coating (L1, L2, L3) and in that this portion of the coating (L1, L2, L3) is heated selectively by an induction coil (B) surrounding this portion of the coating (L1, L2, L3).
A method for purifying a type II GBS capsular polysaccharide, comprising the following steps: (a) providing a crude isolate containing the capsular polysaccharide; (b) removing an alcohol precipitate formed by contacting the crude isolate with an alcohol solution; (c) performing the following filtration steps: (i) a microfiltration step that uses a <_0.65 μm membrane; (ii) a filtration step that uses a membrane with a cut-off of less than about 30 kDa; (iii) a filtration step that uses a 0.45-0.22 μm membrane; (iv) a filtration step that uses a membrane with a cut-off of less than about 30 kDa; (v) a filtration step that uses a protein adherent filter; (vi) a filtration step that uses a membrane with a cut-off of about 10 kDa; (vii) a microfiltration step that uses a 0.22 μm disposable syringe filter; and wherein all of the steps are performed sequentially.
Grating mirror comprising a substrate having a first and a second surface on opposite sides thereof, a reflector arranged on the first surface of said substrate and comprising a stack of reflector layers with high refractive index layers and low refractive index layers stacked in alternating arrangement, a grating arranged on a side of said reflector opposite to said substrate , said grating comprising a stack of grating layers with at least one high refractive index grating layer and at least one low refractive index grating layer stacked in alternating arrangement, said stack of grating layers having grooves etched from a top surface into said stack of grating layers with an etching depth (D) between 40 nm or more and 300 nm or less, characterized in that said grating is designed to obtain a waveguide grating structure, and that said grating is arranged on an uppermost layer of said reflector , and that an evanescent radiation field of incident radiation extends into said grating layers and upper layers of said reflector forming a waveguide for said incident radiation field with a direction of guidance extending parallel to said top surface of said stack of grating layers so that the grating mirror acts as a waveguide grating and each of the reflector layers have a thickness between 100 nm and 250 nm. a reflector arranged on the first surface of said substrate and comprising a stack of reflector layers with high refractive index layers and low refractive index layers stacked in alternating arrangement, a grating arranged on a side of said reflector opposite to said substrate , said grating comprising a stack of grating layers with at least one high refractive index grating layer and at least one low refractive index grating layer stacked in alternating arrangement, said stack of grating layers having grooves etched from a top surface into said stack of grating layers with an etching depth (D) between 40 nm or more and 300 nm or less, characterized in that said grating is designed to obtain a waveguide grating structure, and that said grating is arranged on an uppermost layer of said reflector , and that an evanescent radiation field of incident radiation extends into said grating layers and upper layers of said reflector forming a waveguide for said incident radiation field with a direction of guidance extending parallel to said top surface of said stack of grating layers so that the grating mirror acts as a waveguide grating and each of the reflector layers have a thickness between 100 nm and 250 nm.
A method for inserting a fictive object ( a 0 ) into an image set ( I ) that has been generated by at least one camera when attached to a moving vehicle , said method comprising: • determining an optical measure indicative of a motion blur of said at least one camera that occurred during the generation of said image set ( I ); • inserting said fictive object (a 0 ) into at least one image of said image set ( I ), wherein the visual appearance of said fictive object is modified such that it corresponds to said optical measure; said method being characterized in that it further comprises determining a trajectory (C) along which said at least one camera is moving when attached to said moving vehicle , said method comprising: • determining a sample set of trajectory indication samples ( TIS 1 , TIS 2 ), said sample set comprising at least two trajectory indication samples; • for each trajectory indication sample in said sample set ( TIS 1 , TIS 2 ), determining an individual reliability measure (R 1 , R 2 ) indicative of the reliability of the associated trajectory indication sample; • determining a trajectory estimate (C est ); • determining a trajectory estimate error (CE) by, for each one of said trajectory indication samples in said sample set, determining an error measure (EM 1 , EM 2 ) indicative of an error between the trajectory estimate (C est ) and said trajectory indication sample ( TIS 1 , TIS 2 ), and by combining said error measures, weighted by said individual reliability measure, and • determining said trajectory (C) as being a trajectory estimate (C est ) that results in a trajectory estimate error (CE) that is within a predetermined trajectory estimate error range (ΔCE). • determining an optical measure indicative of a motion blur of said at least one camera that occurred during the generation of said image set ( I ); • inserting said fictive object (a 0 ) into at least one image of said image set ( I ), wherein the visual appearance of said fictive object is modified such that it corresponds to said optical measure; • determining a sample set of trajectory indication samples ( TIS 1 , TIS 2 ), said sample set comprising at least two trajectory indication samples; • for each trajectory indication sample in said sample set ( TIS 1 , TIS 2 ), determining an individual reliability measure (R 1 , R 2 ) indicative of the reliability of the associated trajectory indication sample; • determining a trajectory estimate (C est ); • determining a trajectory estimate error (CE) by, for each one of said trajectory indication samples in said sample set, determining an error measure (EM 1 , EM 2 ) indicative of an error between the trajectory estimate (C est ) and said trajectory indication sample ( TIS 1 , TIS 2 ), and by combining said error measures, weighted by said individual reliability measure, and • determining said trajectory (C) as being a trajectory estimate (C est ) that results in a trajectory estimate error (CE) that is within a predetermined trajectory estimate error range (ΔCE).
An ear tip comprising: a main body portion constructed to enable its reception in an ear canal; wherein: the main body is formed of a pressure-molded slow recovery low resilient foam plastic material comprising multiple gas-filled open cells and having an additive distributed throughout the foam material, characterised in that the additive comprises polytetrafluoroethylene (PTFE). a main body portion constructed to enable its reception in an ear canal; wherein: the main body is formed of a pressure-molded slow recovery low resilient foam plastic material comprising multiple gas-filled open cells and having an additive distributed throughout the foam material, characterised in that the additive comprises polytetrafluoroethylene (PTFE). the main body is formed of a pressure-molded slow recovery low resilient foam plastic material comprising multiple gas-filled open cells and having an additive distributed throughout the foam material, characterised in that the additive comprises polytetrafluoroethylene (PTFE).
Electrochemical energy storage device, comprising at least two electrodes between which a separator (1.2.2) is arranged, the separator (1.2.2) being mechanically flexible, wherein a position of the separator (1.2.2) between the electrodes can be changed as a function of electrochemical processes occurring between the electrodes, characterised in that each of the electrodes comprises a coating of a composite material, the composite material comprising an electrically conductive matrix and an active material , the electrically conductive matrix of at least one of the electrodes comprising a silicon structure (S).