mhurhangee/ep-ind-claims huggingface dataset:
An implantable medical device battery comprising: a first electrode; and a second electrode (310; 710; 810; 910) separate from the first electrode, the second electrode (310; 710; 810; 910) including a first surface and a second surface, the second electrode (310, 710; 810; 910) including a high resistance section (314; 714; 814; 914) in the second electrode extending from the first surface toward the second surface, the high resistance section (314; 714; 814; 914) extending from a perimeter of the second electrode (710; 810; 910) to an interior of the second electrode, wherein the high resistance section (314; 714; 814; 914) is configured to break up a surface area of the second electrode (310; 710; 810; 910) to reduce a radial current loop size in the second electrode (310; 710; 810; 910), characterized in that: the high resistance section (314; 714; 814; 914) is formed by thinning of the second electrode (310; 710; 810; 910) along at least one line. a first electrode; and a second electrode (310; 710; 810; 910) separate from the first electrode, the second electrode (310; 710; 810; 910) including a first surface and a second surface, the second electrode (310, 710; 810; 910) including a high resistance section (314; 714; 814; 914) in the second electrode extending from the first surface toward the second surface, the high resistance section (314; 714; 814; 914) extending from a perimeter of the second electrode (710; 810; 910) to an interior of the second electrode, wherein the high resistance section (314; 714; 814; 914) is configured to break up a surface area of the second electrode (310; 710; 810; 910) to reduce a radial current loop size in the second electrode (310; 710; 810; 910), characterized in that: the high resistance section (314; 714; 814; 914) is formed by thinning of the second electrode (310; 710; 810; 910) along at least one line. the high resistance section (314; 714; 814; 914) is formed by thinning of the second electrode (310; 710; 810; 910) along at least one line.
Method for detecting particles in a medium present in a measurement chamber, wherein a sensor device is arranged inside the measurement chamber, and wherein the sensor device comprises an emitter unit and a photosensitive element, the method comprising: - emitting by the emitter unit a first pulse of light into the measurement chamber in a specified emission direction of the emitter unit; - detecting by the photosensitive element first reflected fractions of the first pulse during a first time window; and - determining an amount of particles in the medium depending on the detection during the first time window; - wherein a path with minimum length for a light ray being emitted by the emitter unit, reflected from a reflector arranged in the measurement chamber on a side of the measurement chamber opposite to the sensor device and detected by the photosensitive element is defined by the emission direction and by a mutual arrangement of the reflector, the emitter unit and the photosensitive element; and - wherein a difference between a starting time of the first pulse and an end time of the first time window is smaller than a time-of-flight for light propagating along the path with minimum length. - emitting by the emitter unit a first pulse of light into the measurement chamber in a specified emission direction of the emitter unit; - detecting by the photosensitive element first reflected fractions of the first pulse during a first time window; and - determining an amount of particles in the medium depending on the detection during the first time window; - wherein a path with minimum length for a light ray being emitted by the emitter unit, reflected from a reflector arranged in the measurement chamber on a side of the measurement chamber opposite to the sensor device and detected by the photosensitive element is defined by the emission direction and by a mutual arrangement of the reflector, the emitter unit and the photosensitive element; and - wherein a difference between a starting time of the first pulse and an end time of the first time window is smaller than a time-of-flight for light propagating along the path with minimum length.
Co-granulate comprising a core comprising or consisting of: a) at least one metal-containing bleach catalyst; b) at least one binder, preferably selected from cellulosic polymers, more preferably selected from carboxymethyl cellulose, hydroxypropyl cellulose, hydroxypropylmethyl cellulose, and mixtures thereof; c) optionally at least one bleach activator; and a coating comprising or consisting of: at least one of the components selected from an acid component, selected from copolymers of acrylic acid and sulfonic acid, citrate, citric acid/citrate and mixtures thereof, or copolymers of PVA and polyethylene glycol. a core comprising or consisting of: a) at least one metal-containing bleach catalyst; b) at least one binder, preferably selected from cellulosic polymers, more preferably selected from carboxymethyl cellulose, hydroxypropyl cellulose, hydroxypropylmethyl cellulose, and mixtures thereof; c) optionally at least one bleach activator; and a) at least one metal-containing bleach catalyst; b) at least one binder, preferably selected from cellulosic polymers, more preferably selected from carboxymethyl cellulose, hydroxypropyl cellulose, hydroxypropylmethyl cellulose, and mixtures thereof; c) optionally at least one bleach activator; and a coating comprising or consisting of: at least one of the components selected from an acid component, selected from copolymers of acrylic acid and sulfonic acid, citrate, citric acid/citrate and mixtures thereof, or copolymers of PVA and polyethylene glycol. at least one of the components selected from an acid component, selected from copolymers of acrylic acid and sulfonic acid, citrate, citric acid/citrate and mixtures thereof, or copolymers of PVA and polyethylene glycol.
A consumer product in the form of a home- or personal-care product, in liquid or powder form, that includes: - from 0.1 to 50% by weight of surfactant, and - core-composite shell microcapsules comprising an outer shell of a coacervate, an inner shell consisting essentially of polymerised polyisocyanate formed from at least one polyisocyanate comprising at least three isocyanate functional groups in the absence of a reactant consisting of a polyamine or an amine, and an internal phase comprising an hydrophobic active ingredient, wherein the inner shell and outer shell form a composite structure. - from 0.1 to 50% by weight of surfactant, and - core-composite shell microcapsules comprising an outer shell of a coacervate, an inner shell consisting essentially of polymerised polyisocyanate formed from at least one polyisocyanate comprising at least three isocyanate functional groups in the absence of a reactant consisting of a polyamine or an amine, and an internal phase comprising an hydrophobic active ingredient, wherein the inner shell and outer shell form a composite structure.
A method of communicating with a user equipment, UE, in a wireless communications system, comprising: determining, from an information message received from the UE, if the UE is configured for a network coded transmission control protocol (TCP-NC); determining a TCP-NC status for each of a plurality of public data networks, PDNs, that are associated with the UE; and selecting, by a network device, one or more operating modes for a communications link between the UE and the network device for each PDN based on whether the UE is configured for TCP-NC and the TCP-NC status for each of the plurality of PDNs. determining, from an information message received from the UE, if the UE is configured for a network coded transmission control protocol (TCP-NC); determining a TCP-NC status for each of a plurality of public data networks, PDNs, that are associated with the UE; and selecting, by a network device, one or more operating modes for a communications link between the UE and the network device for each PDN based on whether the UE is configured for TCP-NC and the TCP-NC status for each of the plurality of PDNs.
A method for operating a blast furnace, comprising: arranging a gas injection portion between the positions p 1 and p 2 in the height direction of the furnace, R 0 being a throat radius of the blast furnace, p 1 being a position at a depth of R 0 from a stock line, and p 2 being a position at 1/3 of the overall height of a shaft from the lower end of the shaft; blowing a hot blast having an oxygen enrichment rate of 20% by volume or less from a tuyere into the blast furnace; and injecting a preheating gas from the gas injection portion. arranging a gas injection portion between the positions p 1 and p 2 in the height direction of the furnace, R 0 being a throat radius of the blast furnace, p 1 being a position at a depth of R 0 from a stock line, and p 2 being a position at 1/3 of the overall height of a shaft from the lower end of the shaft; blowing a hot blast having an oxygen enrichment rate of 20% by volume or less from a tuyere into the blast furnace; and injecting a preheating gas from the gas injection portion.
A positive active material for a rechargeable lithium battery comprising a lithium manganese oxide-based solid solution comprising primary particles and secondary particles formed of agglomerated primary particles, wherein a particle diameter D50 of the secondary particles is in the range of 1 μm to 5 μm, a particle diameter D90 of the secondary particles is less than 8 μm, wherein the particle diameters D50 and D90 are measured using a laser diffraction-scattering method and the particle diameter D50 is a diameter when the cumulative volume of the secondary particle reaches 50 volume%, and the particle diameter D90 is a diameter when the cumulative volume of the secondary particle reaches 90 volume%, characterized in that the particle diameters D10, D50 and D90 of the secondary particles have a relationship satisfying the following Equation 1: 0.5 ≤ D 90 − D 10 / D 50 ≤ 1.3, and a crystallite diameter is less than or equal to 150 nm, r wherein the particle diameter D10 is also measured using a laser diffraction-scattering method and the particle diameter D10 is a diameter when the cumulative volume of the secondary particle reaches 10 volume%, and wherein the crystallite diameter is measured by a X-ray diffraction test performed on the lithium manganese oxide-based solid solution using the Scherrer equation and a full width at half maximum of a peak observed around a diffraction angle of 18°.
Abutment and adhesive base for mounting on an implant head in the jaw of a patient, the contact face of the adhesive base to the abutment being at least partially profiled, and the contact face of the abutment to the adhesive base being designed corresponding to the surface profile of the adhesive base in such a way that the abutment, on account of a form-fit engagement of these contact faces (6, 7), can be arranged in a multiplicity of rotationally secure positions on the adhesive base, characterized in that the adhesive base has a conical main shape, wherein the outwardly directed contact face of this adhesive base has a profile composed of a multiplicity of vertically extending groove-like depressions, which are arranged around the entire circumference on the contact face of this adhesive base, wherein vertically arranged elongate elevations, corresponding to these depressions, are arranged like a spring on the inward contact face of the abutment and engage with a form fit in the depressions on the contact face of this adhesive base, wherein these connection elements (3, 4) are distributed uniformly across the contact faces (6, 7) in such a way that the abutment can be mounted in a rotationally secure manner, by virtue of the form-fit engagement, in a multiplicity of positions on the adhesive base, wherein, by lifting the abutment slightly from the adhesive base, the elevations slide out of the depressions and allow rotation of the abutment on the adhesive base to another position before, by pressing the abutment 'onto the adhesive base, the connection elements (3, 4) engage in each other again and produce the connection.
A method for manufacturing an aerofoil comprising: manufacturing a blade body having a leading edge and a trailing edge, a pressure surface side and a suction surface side, and a cavity bounded by the pressure surface side and/or the suction surface side and the trailing edge; drilling cooling holes (32, 62, 82) along a centreline of an apogee (36, 66, 86) of the trailing edge where the pressure surface side and the suction surface side meet, the cooling holes extending orthogonally through the apogee and into the cavity; and characterized in that, after drilling the cooling holes, adaptive machining the trailing edge on the pressure surface side or the suction surface side so as to thin the apogee (36, 66, 86) on the side to which the cooling holes (32, 62, 82) are drilled to a thickness of from 0.2 to 0.5 mm whilst retaining a part of the outlet (33, 63, 83) of the cooling holes in the apogee. manufacturing a blade body having a leading edge and a trailing edge, a pressure surface side and a suction surface side, and a cavity bounded by the pressure surface side and/or the suction surface side and the trailing edge; drilling cooling holes (32, 62, 82) along a centreline of an apogee (36, 66, 86) of the trailing edge where the pressure surface side and the suction surface side meet, the cooling holes extending orthogonally through the apogee and into the cavity; and characterized in that, after drilling the cooling holes, adaptive machining the trailing edge on the pressure surface side or the suction surface side so as to thin the apogee (36, 66, 86) on the side to which the cooling holes (32, 62, 82) are drilled to a thickness of from 0.2 to 0.5 mm whilst retaining a part of the outlet (33, 63, 83) of the cooling holes in the apogee.
A manufacturing process of a module for a reinforced conveyor belt comprising a plurality of said modules (10,10') wherein each module (10,10') is essentially a rectangular body (10, 10'), the longer sides of which are articulated to allow them to be joined to other adjacent modules by means of a through shaft and the shorter sides of which have a male-female joint and each module comprises a roller (11, 11') configured to rotate with respect to a shaft (13, 13') characterized in that said shaft (13, 13') consists of a tube able to be filled with plastic material; and in that said process comprises the stages of (i) inserting the shaft (13, 13') and roller (11, 11') assembly in an injection mold (200, 200'); and (ii) a single injection stage of the module (10,10') such that said injected plastic fills the inside of the tubular shaft (13, 13') forming a single assembly or structure with the body of the module (10,10'). a plurality of said modules (10,10') wherein each module (10,10') is essentially a rectangular body (10, 10'), the longer sides of which are articulated to allow them to be joined to other adjacent modules by means of a through shaft and the shorter sides of which have a male-female joint and each module comprises a roller (11, 11') configured to rotate with respect to a shaft (13, 13') characterized in that said shaft (13, 13') consists of a tube able to be filled with plastic material; and in that said process comprises the stages of (i) inserting the shaft (13, 13') and roller (11, 11') assembly in an injection mold (200, 200'); and (ii) a single injection stage of the module (10,10') such that said injected plastic fills the inside of the tubular shaft (13, 13') forming a single assembly or structure with the body of the module (10,10').
A composition comprising (a) one or more cyclopropene complex in which one or more molecular encapsulating agent encapsulates one or more cyclopropene or a portion of one of more cyclopropene, and (b) 2-10% water by weight based on the weight of said composition, wherein the mole ratio of cyclopropene in said composition to molecular encapsulating agent in said composition is from 0.92:1 to 1.5:1. (a) one or more cyclopropene complex in which one or more molecular encapsulating agent encapsulates one or more cyclopropene or a portion of one of more cyclopropene, and (b) 2-10% water by weight based on the weight of said composition,
A control device (104, 204) for controlling a clock signal generator, the control device comprising a processing system (105-107, 205-207) configured to: - form a control quantity at least partly on the basis of stored reception moments of data frames belonging to a first flow that is a part of an aggregate flow, the reception moments being time values based on a first clock signal and the data frames belonging to the first flow being transmitted in accordance with a second clock signal, and - control the clock signal generator with the control quantity so as to achieve synchronization between the first clock signal and the second clock signal, characterized in that the processing system is further configured to: - check whether pre-determined bits of a received data frame of the aggregate flow constitute a first bit pattern, the first bit pattern occurring when the received data frame belongs to the first flow, and - in response to a situation in which the first bit pattern occurs, store the reception moment of the received data frame so that the stored reception moment is associated with the first flow. - form a control quantity at least partly on the basis of stored reception moments of data frames belonging to a first flow that is a part of an aggregate flow, the reception moments being time values based on a first clock signal and the data frames belonging to the first flow being transmitted in accordance with a second clock signal, and - control the clock signal generator with the control quantity so as to achieve synchronization between the first clock signal and the second clock signal, - check whether pre-determined bits of a received data frame of the aggregate flow constitute a first bit pattern, the first bit pattern occurring when the received data frame belongs to the first flow, and - in response to a situation in which the first bit pattern occurs, store the reception moment of the received data frame so that the stored reception moment is associated with the first flow.
Latching mechanism for a cargo door (1, 27) in a fuselage cell of an aircraft, the latching mechanism comprising: a number of fuselage cell fitments (9, 41, 67) which are able to be disposed in the area of a loading edge (8, 71) of the cargo door (1, 27), a corresponding number of cargo door fitments (7, 28, 61, 68) which are able to be fixed in the lower edge area of the cargo door (1, 27) and a sliding element (17, 31, 55, 70), wherein latching the cargo door (1, 27) is carried out by the sliding element (17, 31, 55, 70) and the cargo door fitments (7, 28, 61, 68) can be brought into positive latching engagement at least in some areas with the fuselage cell fitments (9, 41, 67) wherein peripheral loads of the fuselage cell are transferred substantially by a load transfer surface (15, 48, 82) and radial loads are taken up substantially by the sliding element (17, 31, 55, 70) characterised in that the at least one cargo door fitment is provided with a securing mechanism for the supplementary self-securing of the sliding element against unintended opening, wherein the securing mechanism comprises a security bar having at least one security cam, wherein, when in a locked state of the cargo door, the at least one security cam can be brought into at least one security recess in the sliding element (17, 31, 55) by swivelling the security bar. a number of fuselage cell fitments (9, 41, 67) which are able to be disposed in the area of a loading edge (8, 71) of the cargo door (1, 27), a corresponding number of cargo door fitments (7, 28, 61, 68) which are able to be fixed in the lower edge area of the cargo door (1, 27) and a sliding element (17, 31, 55, 70), wherein latching the cargo door (1, 27) is carried out by the sliding element (17, 31, 55, 70) and the cargo door fitments (7, 28, 61, 68) can be brought into positive latching engagement at least in some areas with the fuselage cell fitments (9, 41, 67) wherein peripheral loads of the fuselage cell are transferred substantially by a load transfer surface (15, 48, 82) and radial loads are taken up substantially by the sliding element (17, 31, 55, 70) characterised in that the at least one cargo door fitment is provided with a securing mechanism for the supplementary self-securing of the sliding element against unintended opening, wherein the securing mechanism comprises a security bar having at least one security cam, wherein, when in a locked state of the cargo door, the at least one security cam can be brought into at least one security recess in the sliding element (17, 31, 55) by swivelling the security bar.
An electronic assembly, comprising: an electronic device including a first body; a speaker and a latch, wherein the speaker is movably assembled to the first body and has a first rail; wherein the latch is movably assembled to the first body and is coupled to the first rail and to a second rail of the first body simultaneously, an acute angle is included between the first rail and the second rail, and wherein the latch is configured to be pushed and moved along the first rail and the second rail simultaneously, and the latch drives a part of the speaker to protrude out of the first body. an electronic device including a first body; a speaker and a latch, wherein the speaker is movably assembled to the first body and has a first rail; wherein the latch is movably assembled to the first body and is coupled to the first rail and to a second rail of the first body simultaneously, an acute angle is included between the first rail and the second rail, and wherein the latch is configured to be pushed and moved along the first rail and the second rail simultaneously, and the latch drives a part of the speaker to protrude out of the first body.
A self-propelled merger comprising: a motor; front wheels and rear wheels; a chassis; a first pickup and transfer assembly, a second pickup and transfer assembly and a third pickup and transfer assembly, each of the pickup and transfer assemblies being movable between a first position wherein the pickup and transfer assemblies are laterally aligned and a second position; a cab extending above and behind the second pickup and transfer assembly a folding mechanism for moving each of the pickup and transfer assemblies between the first position and the second position, characterized in that, a pickup head of each of the first and third pickup and transfer assemblies (30, 34) is rear of the cab in the second position. a motor; front wheels and rear wheels; a chassis; a first pickup and transfer assembly, a second pickup and transfer assembly and a third pickup and transfer assembly, each of the pickup and transfer assemblies being movable between a first position wherein the pickup and transfer assemblies are laterally aligned and a second position; a cab extending above and behind the second pickup and transfer assembly a folding mechanism for moving each of the pickup and transfer assemblies between the first position and the second position, characterized in that, a pickup head of each of the first and third pickup and transfer assemblies (30, 34) is rear of the cab in the second position.