mhurhangee/ep-ind-claims huggingface dataset:
A metal closed switchgear, an internal space of which is divided into a plurality of compartments (5, 6, 7, 8, 9) by partition walls, wherein some of the partition walls are provided with an explosion proof filter, characterized in that the explosion proof filter employs a sintered metal material and includes a metal holder mounted to the partition wall and supportively fixing the sintered metal material in position, wherein the explosion proof filter includes an elastic body disposed between the sintered metal material and a support member for supportively fixing the sintered metal material in position and wherein the sintered metal material is slidably inserted in a recess of the metal holder and supportively fixed between the support member and the metal holder. wherein some of the partition walls are provided with an explosion proof filter, characterized in that the explosion proof filter employs a sintered metal material and includes a metal holder mounted to the partition wall and supportively fixing the sintered metal material in position, wherein the explosion proof filter includes an elastic body disposed between the sintered metal material and a support member for supportively fixing the sintered metal material in position and wherein the sintered metal material is slidably inserted in a recess of the metal holder and supportively fixed between the support member and the metal holder.
A semiconductor package (40; 41), comprising: a substrate component comprising a first surface (S 1), a second surface (S 2) opposite to said first surface (S 1), and a sidewall surface extending between said first surface (S 1) and said second surface (S 2); a re-distribution layer, in the following also referred to as RDL, structure disposed on said first surface (S 1) and electrically connected to said first surface (S 1) through first connecting elements comprising solder bumps or balls; a plurality of ball grid array, in the following also referred to as BGA, balls mounted on said second surface (S 2) of said substrate component; and at least one integrated circuit die mounted on said RDL structure through second connecting elements; characterized in that a sidewall surface of said RDL structure is aligned with said sidewall surface of said substrate component along a vertical direction. a substrate component comprising a first surface (S 1), a second surface (S 2) opposite to said first surface (S 1), and a sidewall surface extending between said first surface (S 1) and said second surface (S 2); a re-distribution layer, in the following also referred to as RDL, structure disposed on said first surface (S 1) and electrically connected to said first surface (S 1) through first connecting elements comprising solder bumps or balls; a plurality of ball grid array, in the following also referred to as BGA, balls mounted on said second surface (S 2) of said substrate component; and at least one integrated circuit die mounted on said RDL structure through second connecting elements;
A beta-type zeolite which has a substantially octahedral shape, has a Si/Al ratio of 40 or more, and is a proton-type zeolite, and wherein the average particle diameters of the beta-type zeolite is 0.2 μm to 2.0 μm, the BET specific surface area is 400 m 2 /g to 650 m 2 /g, and the volume of a micro hole is 0.10 cm 3 /g to 0.28 cm 3 /g, whereby the specific surface area and the volume are measured by using a BET surface area measuring apparatus, and wherein the beta-type zeolite is obtained by transforming a raw material beta-type zeolite having a Si/Al ratio of 5 to 7 and synthesized without using a structure directing agent into an ammonium-type zeolite through ion exchange, then, exposing the beta-type zeolite to water vapor at a temperature set to 500°C to 900°C with an exposure time of the water vapor set to 12 hours to 24 hours, and subjecting the exposed beta-zeolite to an acid treatment at 40°C to 100°C for 1 hour to 24 hours using a mineral acid.
A method for analyzing a sample, comprising: (a) obtaining a value of signal at each of cycles of a signal-generating process using the sample to provide values of signals at the cycles; (b) applying a threshold value to each of the cycles such that a plurality of threshold values are applied to the cycles; wherein the threshold values of at least two cycles among the cycles are different from each other; (c) identifying one or more cycles satisfying a threshold criterion determined by each of the threshold values; and (d) analyzing the sample by using the identified cycle or cycles in the step (c). (a) obtaining a value of signal at each of cycles of a signal-generating process using the sample to provide values of signals at the cycles; (b) applying a threshold value to each of the cycles such that a plurality of threshold values are applied to the cycles; wherein the threshold values of at least two cycles among the cycles are different from each other; (c) identifying one or more cycles satisfying a threshold criterion determined by each of the threshold values; and (d) analyzing the sample by using the identified cycle or cycles in the step (c).
A method for improving link adaptation in a wireless communications system, the method performed at a User Equipment, UE, and comprising: receiving a configuration message from an eNodeB, the configuration message matching a coordinated multipoint, CoMP, hypothetical data transmission which is a candidate for downlink transmission to the UE, wherein the hypothetical data transmission corresponds to a transmission scheme selected from a group consisting of a dynamic point blanking scheme, a dynamic point selection scheme, a coordinated beamforming scheme, and a joint transmission scheme, wherein the configuration message specifies at least one first Channel State Information, CSI, report specifying an interference hypothesis and a desired signal hypothesis corresponding to the hypothetical data transmission over an effective channel that is characterized by a reference signal, wherein both of the interference hypothesis and the desired signal hypothesis are specified, at least in part, by a Channel State Information - Interference Measurement, CSI-IM, configuration, and a Channel State Information - Reference Signal, CSI-RS, configuration, respectively; estimating interference according to the specified interference hypothesis, and estimating properties of the effective channel; wherein the estimated properties comprise a radio propagation channel, antenna gains and/or any possible antenna virtualizations of the effective channel; determining at least one CSI report based on the interference estimation and the estimated properties of the effective channel; and transmitting the determined at least one CSI report to the eNodeB. receiving a configuration message from an eNodeB, the configuration message matching a coordinated multipoint, CoMP, hypothetical data transmission which is a candidate for downlink transmission to the UE, wherein the hypothetical data transmission corresponds to a transmission scheme selected from a group consisting of a dynamic point blanking scheme, a dynamic point selection scheme, a coordinated beamforming scheme, and a joint transmission scheme, wherein the configuration message specifies at least one first Channel State Information, CSI, report specifying an interference hypothesis and a desired signal hypothesis corresponding to the hypothetical data transmission over an effective channel that is characterized by a reference signal, wherein both of the interference hypothesis and the desired signal hypothesis are specified, at least in part, by a Channel State Information - Interference Measurement, CSI-IM, configuration, and a Channel State Information - Reference Signal, CSI-RS, configuration, respectively; estimating interference according to the specified interference hypothesis, and estimating properties of the effective channel; wherein the estimated properties comprise a radio propagation channel, antenna gains and/or any possible antenna virtualizations of the effective channel; determining at least one CSI report based on the interference estimation and the estimated properties of the effective channel; and transmitting the determined at least one CSI report to the eNodeB.
Procedure for determining a compensated flow and/or a compensated flow velocity, wherein the compensation of a measuring error, caused by flow-related conditions, during a flow measurement is carried out with a clamp-on ultrasonic flowmeter arrangement on a pipe (5, 16, 26) using an evaluation unit (11, 21) of the flowmeter and/or a computer, wherein the following procedural steps are performed: a) Information regarding the type of pipe element (6a-6d) that influences the flow is fed into the evaluation unit (11, 21) and/or the computer; b) Information regarding the distance (x a -x d) of the arrangement from the pipe element that influences the flow (6a-6d) is fed into the evaluation unit (11, 21) and/or computer; c) Compensation of a measuring error using a correction factor k D as a function of the information from steps a) and b); d) A flow, corrected by the correction factor k D, is determined and/or a flow velocity corrected by the correction factor k D, is determined characterized in that a two-path measurement takes place with two pairs of ultrasonic transducers (12-15, 22-25), wherein the pairs of ultrasonic transducers (12-15, 22-25) each form a measuring path, wherein the pairs of ultrasonic transducers (12-15, 22-25) adopt a 180° two-path single-traverse arrangement or a 90° two-path dual-traverse arrangement, wherein when the 180° two-path single-traverse arrangement or the 90° two-path dual-traverse arrangement is used, asymmetries of the flow profile are recorded and compensated for wherein in the event of the 180° two-path single-traverse arrangement both pairs of ultrasonic transducers (12-15, 22-25) are arranged on a common plane, wherein in the event of the 90° two-path dual-traverse arrangement, the pairs of ultrasonic transducers (12-15, 22-25) are arranged on planes that are perpendicular to one another, wherein an angle-dependent installation orientation of the pairs of ultrasonic transducers (12-15, 22-25) in relation to the pipe element that influences the flow is not taken into consideration in determining the corrected flow and/or the corrected flow velocity, wherein parts of the measuring error, which depend on the angle, of the two measuring paths are mutually compensated. a) Information regarding the type of pipe element (6a-6d) that influences the flow is fed into the evaluation unit (11, 21) and/or the computer; b) Information regarding the distance (x a -x d) of the arrangement from the pipe element that influences the flow (6a-6d) is fed into the evaluation unit (11, 21) and/or computer; c) Compensation of a measuring error using a correction factor k D as a function of the information from steps a) and b); d) A flow, corrected by the correction factor k D, is determined and/or a flow velocity corrected by the correction factor k D, is determined
A method for sensing features of a signal in a wireless communication system, the method comprising: determining a plurality of power spectral density estimates, each estimate of the plurality being derived based on reception of the signal by a respective antenna of a plurality of antennas (224, 252) of a device; combining the plurality of power spectral density estimates; and sensing the signal features based on the combination of the plurality of power spectral density estimates; wherein sensing the signal features further comprises determining a test statistic and comparing the test statistic with a predetermined threshold to determine sensing of the signal features. determining a plurality of power spectral density estimates, each estimate of the plurality being derived based on reception of the signal by a respective antenna of a plurality of antennas (224, 252) of a device; combining the plurality of power spectral density estimates; and sensing the signal features based on the combination of the plurality of power spectral density estimates;
An injectable composition for bone filling or consolidation, for use in surgery or therapy, characterized in that it comprises a biocompatible material in form of powder, which is hardenable or cross-linkable and selected from calcium sulphate hemi-hydrate and polymethylmethacrylate, a hardening or cross-linking agent for said material and a porous silica-based material in form of powder, having a specific surface area higher than 100 m 2 /g, which comprises a mesoporous bioactive glass having a pore size from 2 to 50 nm, obtainable by a sol-gel method with the addition of a surfactant as structure-directing agent for pores formation, comprising an oxide mixture containing: SiO 2: from 60 to 85% by moles CaO: from 10 to 30% by moles P 2 O 5: from 2 to 10% by moles said composition, when applied to an affected area of a patient, being adapted to form a composite material wherein said hardenable or cross-linkable material constitutes a matrix and said mesoporous bioactive glass constitutes a dispersed phase in said matrix. SiO 2: from 60 to 85% by moles CaO: from 10 to 30% by moles P 2 O 5: from 2 to 10% by moles said composition, when applied to an affected area of a patient, being adapted to form a composite material wherein said hardenable or cross-linkable material constitutes a matrix and said mesoporous bioactive glass constitutes a dispersed phase in said matrix.
In a communication system wherein a client device receives blocks of media from one or more media ingestion systems, a method comprising: identifying, at the client device, a size of an available buffer for storing received blocks of media prior to being consumed by an output of the client device (127, 128); determining a rate of change of the size of the available buffer; and determining, for a plurality of block requests corresponding to blocks of the media being consumed by the output of the client device, a block to request and a timing of the request, wherein both the block to request and the timing of the request are dependent upon the size of the available buffer and the rate of change of the size of the available buffer, wherein the rate of change of the size of the available buffer is measured by the ratio of the amount of media received in a given time period to the length of said time period. identifying, at the client device, a size of an available buffer for storing received blocks of media prior to being consumed by an output of the client device (127, 128); determining a rate of change of the size of the available buffer; and determining, for a plurality of block requests corresponding to blocks of the media being consumed by the output of the client device, a block to request and a timing of the request, wherein both the block to request and the timing of the request are dependent upon the size of the available buffer and the rate of change of the size of the available buffer, wherein the rate of change of the size of the available buffer is measured by the ratio of the amount of media received in a given time period to the length of said time period.
An injection apparatus for making an injection at a predetermined depth in skin, comprising: a skin positioning member (24,26) for positioning a patch of skin within an area of skin to hold the patch of skin in a defined position; an injection needle comprising a tip, at least one bevel (670,680) and a heel together forming a point at a distal end thereof, and a shaft portion immediately proximal of said heel having a longitudinal axis, including a lumen extending along the longitudinal axis, wherein the at least one bevel (670,680) is formed between said tip and said heel such that a lumen opening is defined from the tip to a proximal end of the lumen opening located distal of the heel; and means (86,72,76,66) guiding said injection needle for movement from a parking position above said skin positioning member to an injection position in which the distal end of the needle lies at a predetermined distance below said skin positioning member (24,26); characterised in that: the length of the lumen opening of the needle is in a range from 5 to 15 times the diameter of the shaft of the needle. a skin positioning member (24,26) for positioning a patch of skin within an area of skin to hold the patch of skin in a defined position; an injection needle comprising a tip, at least one bevel (670,680) and a heel together forming a point at a distal end thereof, and a shaft portion immediately proximal of said heel having a longitudinal axis, including a lumen extending along the longitudinal axis, wherein the at least one bevel (670,680) is formed between said tip and said heel such that a lumen opening is defined from the tip to a proximal end of the lumen opening located distal of the heel; and means (86,72,76,66) guiding said injection needle for movement from a parking position above said skin positioning member to an injection position in which the distal end of the needle lies at a predetermined distance below said skin positioning member (24,26); characterised in that: the length of the lumen opening of the needle is in a range from 5 to 15 times the diameter of the shaft of the needle. the length of the lumen opening of the needle is in a range from 5 to 15 times the diameter of the shaft of the needle.
Method for producing a plastic housing, in particular a pump housing, which is produced from plastic by means of injection moulding by liquid plastic being injected into an injection mould having at least one mould core and at least one slide, characterized in that, before the insertion of the slide into the injection mould and before the injection method step, a sealing device is arranged on the outer circumference of the mould core and, when the slide is in the fully inserted position, the said sealing device lies with its outer surface against the end face of the slide that is facing the mould core, whereby a sealing of the corresponding transitional regions takes place, these transitional regions being understood as meaning on the one hand the end face of the slide that is pressed into the sealing device and on the other hand the circumferential portion of the mould core that is facing the end face of the slide.
A module and support structure assembly, in particular for mounting on the windscreen of a passenger compartment of an automotive vehicle, comprising: a module having a housing; a support structure adapted to carry said module, the housing and support structure comprising respective first and second fixation members (38;44) cooperating with each other for releasable fixing, in particular by snapping, said module to said support structure; wherein said housing and support structure further comprise cooperating positioning members (42; 52) that are configured to define a receiving position for the module on the support structure, in which the module is not fixed, and to assist in a guided fashion engagement of the first and second fixation members (38, 44) to bring said module in a fixed position, and a pair of positioning walls (54, 56; 154, 156) are arranged on the support structure and spaced to accommodate the module, characterized in that the positioning member of the support structure is located in-between the positioning walls (54, 56; 154, 156) or is separating one of the positioning walls in two portions (56a, 56b) to limit the angular displacement of said module on said support structure, and thereby define the angular position corresponding to the receiving position. a module having a housing; a support structure adapted to carry said module, the housing and support structure comprising respective first and second fixation members (38;44) cooperating with each other for releasable fixing, in particular by snapping, said module to said support structure; wherein said housing and support structure further comprise cooperating positioning members (42; 52) that are configured to define a receiving position for the module on the support structure, in which the module is not fixed, and to assist in a guided fashion engagement of the first and second fixation members (38, 44) to bring said module in a fixed position, and a pair of positioning walls (54, 56; 154, 156) are arranged on the support structure and spaced to accommodate the module, characterized in that the positioning member of the support structure is located in-between the positioning walls (54, 56; 154, 156) or is separating one of the positioning walls in two portions (56a, 56b) to limit the angular displacement of said module on said support structure, and thereby define the angular position corresponding to the receiving position.
Moulded module with at least one electronic and/or electrical component, which is enclosed by a moulding compound, and at least one press-in contact, which is arranged on the module edge and led out laterally from the moulded module and which has an electrical contacting region having a press-in opening accessible from both surfaces, wherein the moulding compound is deposited in the region of the at least one press-in contact and respectively forms on both surfaces of the press-in contact a moulded collar, which encloses the corresponding press-in contact and absorbs press-in forces occurring in the event of contacting and respectively leaves a space open above and below the corresponding press-in opening, wherein the press-in contact has on both surfaces around the press-in opening a stamping zone, which separates the electrical contacting region from the moulding compound and has an overstamping offset, which makes up 1 to 5% of the thickness of the press-in contact.