mhurhangee/ep-ind-claims huggingface dataset:
Compression garment for a body (100,101), comprising an upper part having a first opening adapted to receive a body part, a central portion, and a lower part, an inner surface adapted to face said body part, said compression garment further comprising a first material, an elongated gap arranged in said first material and disposed substantially in the compression garment's longitudinal direction, said elongated gap having a first side edge and a second side edge, a second material arranged and disposed between and attached to said first and second side edge such that said second material essentially covers or fills said elongated gap, said second material being elastic, a tensioning device (23, 25, 26, 200) adapted to adjust the level of compression of the garment on said body part, said tensioning device (23, 25,26, 200) being arranged in or across said elongated gap on the outside of said compression garment and outside said second material disposed in said elongated gap, on the side facing away from the underlying body part when in use, such that operating said tensioning device (23, 25,26,200) will close or open said elongated gap, wherein said first material and said tensioning device (23,25,26,200) are attached to each other via flaps or other attachment points arranged along said first and second side edges of said elongated gap, wherein said compression garment further comprises an elongated padded element, said padded element being arranged on or as part of an outer surface of said second material.
Apparatus for testing quality of a component carrier structure, wherein the apparatus comprises: a material removal unit configured for removing material of the component carrier structure for exposing a plane in an interior of the component carrier structure; characterised in that the apparatus further comprises: a detection unit configured for detecting component carrier structure specific data, in particular image data, of the exposed plane of the component carrier structure; a determining unit configured for determining at least one pre-defined test target of the component carrier structure at the exposed plane based on the component carrier structure specific data; and an evaluation unit configured for identifying and evaluating at least one defect of the at least one determined test target for assessing quality of the component carrier structure. a material removal unit configured for removing material of the component carrier structure for exposing a plane in an interior of the component carrier structure; characterised in that the apparatus further comprises: a detection unit configured for detecting component carrier structure specific data, in particular image data, of the exposed plane of the component carrier structure; a determining unit configured for determining at least one pre-defined test target of the component carrier structure at the exposed plane based on the component carrier structure specific data; and an evaluation unit configured for identifying and evaluating at least one defect of the at least one determined test target for assessing quality of the component carrier structure. a detection unit configured for detecting component carrier structure specific data, in particular image data, of the exposed plane of the component carrier structure; a determining unit configured for determining at least one pre-defined test target of the component carrier structure at the exposed plane based on the component carrier structure specific data; and an evaluation unit configured for identifying and evaluating at least one defect of the at least one determined test target for assessing quality of the component carrier structure.
A wound debridement material comprising: a solid open-cell hydrophilic porous foam soaked by a liquid such that the foam has a moisture content from 20 wt. % to 60 wt. %; wherein the solid porous foam has a texture that permits the wound debridement material, when applied in frictional contact across at least a portion of a wound surface of a patient including tissue to be removed, to remove the tissue from the wound surface via adherence of the tissue to the wound debridement material without leaving solid debris of the foam on the wound surface; characterised in that the foam has a stiffness of 30 Shore A durometer to 70 Shore A durometer; a compression stiffness of the foam is from 4.0 kPa at 25% compression to 9.0 kPa at 50% compression; and a density from 145kg/m3 to 270 kg/m3. a solid open-cell hydrophilic porous foam soaked by a liquid such that the foam has a moisture content from 20 wt. % to 60 wt. %; wherein the solid porous foam has a texture that permits the wound debridement material, when applied in frictional contact across at least a portion of a wound surface of a patient including tissue to be removed, to remove the tissue from the wound surface via adherence of the tissue to the wound debridement material without leaving solid debris of the foam on the wound surface; characterised in that the foam has a stiffness of 30 Shore A durometer to 70 Shore A durometer; a compression stiffness of the foam is from 4.0 kPa at 25% compression to 9.0 kPa at 50% compression; and a density from 145kg/m3 to 270 kg/m3.
A method for transmitting numeric values from a detection unit to a control unit, the detection unit being configured for acquiring numeric values in respective acquisition instants, in a synchronous and/or asynchronous way, and on the basis of a signal indicating a quantity to be monitored; said method comprising, for each value considered from among the numeric values acquired, performing, by said detection unit, the steps of: - applying to said considered value at least a first coding algorithm and a second coding algorithm, so as to obtain, respectively, a first code and a second code, said first and second codes being in binary format; - storing the first code, the second code, and the acquisition instant corresponding to the considered value; the method further comprising performing, by said detection unit, the step of generating a first code sequence and a second code sequence, associated respectively to the first coding algorithm and to the second coding algorithm and comprising, respectively, the first and second codes stored; characterized in that it further comprises performing, by said detection unit, the steps of: - selecting an optimal algorithm from said at least a first coding algorithm and a second coding algorithm, on the basis of the first and second code sequences; - generating a compressed sequence of data on the basis, alternatively, of the first code sequence or of the second code sequence, depending on the selected optimal algorithm; and - transmitting to the control unit the compressed sequence of data. - applying to said considered value at least a first coding algorithm and a second coding algorithm, so as to obtain, respectively, a first code and a second code, said first and second codes being in binary format; - storing the first code, the second code, and the acquisition instant corresponding to the considered value; - selecting an optimal algorithm from said at least a first coding algorithm and a second coding algorithm, on the basis of the first and second code sequences; - generating a compressed sequence of data on the basis, alternatively, of the first code sequence or of the second code sequence, depending on the selected optimal algorithm; and - transmitting to the control unit the compressed sequence of data.
A method of privacy-sensitive audio analysis, the method comprising: capturing a subset of audio data contained in a continuous audio stream, wherein: the continuous audio stream contains human speech, and the subset of audio data obscures content of the human speech, wherein the subset of audio data comprises a plurality of audio data segments, each audio data segment comprising data from a different temporal component of the continuous audio stream; analyzing the subset of audio data for audio characteristics; and making a determination of an ambient environment, based, at least in part, on the audio characteristics. capturing a subset of audio data contained in a continuous audio stream, wherein: the continuous audio stream contains human speech, and the subset of audio data obscures content of the human speech, wherein the subset of audio data comprises a plurality of audio data segments, each audio data segment comprising data from a different temporal component of the continuous audio stream; the continuous audio stream contains human speech, and the subset of audio data obscures content of the human speech, wherein the subset of audio data comprises a plurality of audio data segments, each audio data segment comprising data from a different temporal component of the continuous audio stream; analyzing the subset of audio data for audio characteristics; and making a determination of an ambient environment, based, at least in part, on the audio characteristics.
A processing method for user access, wherein the processing method comprises: determining (201; 301; 402), by a first broadband remote access server, BRAS, a user access failure rate corresponding to a first access interface on the first BRAS; and adjusting (202; 302; 403), by the first BRAS, a response delay or priority of the first access interface from a first value to a second value when the user access failure rate corresponding to the first access interface is greater than or equal to a first threshold, wherein a corresponding response speed of responding to a user access request based on the first value is faster than a corresponding response speed of responding to the user access request based on the second value, responding, by a second BRAS, to a first user access request based on a response delay or priority of a second access interface, wherein a corresponding response speed of responding to the first user access request by the second BRAS based on the response delay or priority of the second access interface is faster than a corresponding response speed of responding to the first user access request by the first BRAS based on the second value, and is slower than a corresponding response speed of responding to the user access request by the first BRAS based on the first value; and wherein the first user access request is sent by a user equipment to the first and second BRAS in a broadcast manner. determining (201; 301; 402), by a first broadband remote access server, BRAS, a user access failure rate corresponding to a first access interface on the first BRAS; and adjusting (202; 302; 403), by the first BRAS, a response delay or priority of the first access interface from a first value to a second value when the user access failure rate corresponding to the first access interface is greater than or equal to a first threshold, wherein a corresponding response speed of responding to a user access request based on the first value is faster than a corresponding response speed of responding to the user access request based on the second value, responding, by a second BRAS, to a first user access request based on a response delay or priority of a second access interface, wherein a corresponding response speed of responding to the first user access request by the second BRAS based on the response delay or priority of the second access interface is faster than a corresponding response speed of responding to the first user access request by the first BRAS based on the second value, and is slower than a corresponding response speed of responding to the user access request by the first BRAS based on the first value; and wherein the first user access request is sent by a user equipment to the first and second BRAS in a broadcast manner.
A method for producing containers from preforms of thermoplastic material by means of a blow molding machine having at least one temperature control device and a forming device with at least two forming stations, wherein the preforms are temperature-controlled by means of the temperature control device using predeterminable first control parameters, and wherein in each case a temperature-controlled preform is formed into a container by means of one of the forming stations using predeterminable second control parameters, and at least one of the second control parameters for each of the forming stations is specified individually and at least one property of a finished container is recorded by measurement and that, taking into account the recorded property, the individual second control parameters for the forming station used for forming the corresponding container are suitably specified in order to influence the corresponding property for containers subsequently formed in the same forming station with regard to desired container specifications, characterized in that the chronological progression of at least one of the individual second control parameters for a forming station is recorded, and that from the chronological progression of the at least one control parameter any change in a component characteristic of a component of the forming station assigned to the at least one control parameter is derived.
Granular functionalized silica, characterized in that - the Hg pore volume (< 4 μm) is more than 0.80 ml/g, - d Q3=10% is more than 400 μm, - d Q3=90% is less than 3000 μm, - the ratio of d 50 without ultrasound exposure to d 50 after 3 min of ultrasound exposure is < 4.00, the measurement being effected on a fraction of particles of 400 to 500 μm using the LS 230 laser diffraction system from Beckman Coulter, measurement range 0.04-2000 μm and Small Volume Module Plus liquid module, 120 ml from Beckman Coulter with integrated ultrasound finger, Vibra Cell VCX 130 ultrasound processor from Sonics with CV 181 ultrasound converter and 6 mm ultrasound tip at 100% amplitude in an ethanol/water mixture, volume ratio 1:1, and - the carbon content is 1.0-15.0% by weight and it contains the functional groups Si(CH 2) m -R', (R") x Si(CH 2) m -R', Si(CH 2) m -R' or (R'') x Si(CH 2) m -R' where m = 0, 1 - 20, R' = -NH 2, -NH-CH 2 -CH 2 -NH 2, -N-(CH 2 -CH 2 -NH 2) 2, -NH-CO-N-CO-(CH 2) 5, -NH-COO-CH 3, -NH-COO-CH 2 -CH 3, -NH-(CH 2) 3 Si 3, -NH-(CH 2) 3 -CH 3 or -NH-CH 2 -CH 2 -NH-CH 2 -CH 2 -NH 2, R" = alkyl, cycloalkyl, x = 1 or 2. - the Hg pore volume (< 4 μm) is more than 0.80 ml/g, - d Q3=10% is more than 400 μm, - d Q3=90% is less than 3000 μm, - the ratio of d 50 without ultrasound exposure to d 50 after 3 min of ultrasound exposure is < 4.00, the measurement being effected on a fraction of particles of 400 to 500 μm using the LS 230 laser diffraction system from Beckman Coulter, measurement range 0.04-2000 μm and Small Volume Module Plus liquid module, 120 ml from Beckman Coulter with integrated ultrasound finger, Vibra Cell VCX 130 ultrasound processor from Sonics with CV 181 ultrasound converter and 6 mm ultrasound tip at 100% amplitude in an ethanol/water mixture, volume ratio 1:1, and - the carbon content is 1.0-15.0% by weight and it contains the functional groups Si(CH 2) m -R', (R") x Si(CH 2) m -R', Si(CH 2) m -R' or (R'') x Si(CH 2) m -R' where m = 0, 1 - 20, R' = -NH 2, -NH-CH 2 -CH 2 -NH 2, -N-(CH 2 -CH 2 -NH 2) 2, -NH-CO-N-CO-(CH 2) 5, -NH-COO-CH 3, -NH-COO-CH 2 -CH 3, -NH-(CH 2) 3 Si 3, -NH-(CH 2) 3 -CH 3 or -NH-CH 2 -CH 2 -NH-CH 2 -CH 2 -NH 2, R" = alkyl, cycloalkyl, x = 1 or 2.
A computer-implemented method comprising: receiving a routing request for an aerial drone to travel to a target location located in or near a structure; accessing map data comprising line-of-sight data for one or more privacy-sensitive features of the structure, the one or more privacy-sensitive features including one or more windows (201, 505), one or more openings, or a combination thereof; calculating a privacy-sensitive route for the aerial drone to the target location based on the map data; and providing the privacy-sensitive route in response to the routing request. receiving a routing request for an aerial drone to travel to a target location located in or near a structure; accessing map data comprising line-of-sight data for one or more privacy-sensitive features of the structure, the one or more privacy-sensitive features including one or more windows (201, 505), one or more openings, or a combination thereof; calculating a privacy-sensitive route for the aerial drone to the target location based on the map data; and providing the privacy-sensitive route in response to the routing request.
Method for determining the orientation of a part to be additively manufactured, wherein the method comprises the following steps of: - a) providing a part geometry for the part to be additively manufactured, wherein the part is a component of a turbine, - b) defining a property of the part to be additively manufactured, wherein the property is a material- and geometry-dependent property, wherein the property is furthermore a creep strength of the part to be additively manufactured - c) analysing a direction dependence of the property depending on the part geometry, wherein the direction dependence of the property is analysed on the basis of a structural analysis of additively manufactured material, wherein the crystal structure and/or the material phases of the part are analysed, and - d) determining a preferred orientation, in an additive manufacturing plant, of the part to be additively manufactured, on the basis of the analysis of the direction dependence. - a) providing a part geometry for the part to be additively manufactured, wherein the part is a component of a turbine, - b) defining a property of the part to be additively manufactured, wherein the property is a material- and geometry-dependent property, wherein the property is furthermore a creep strength of the part to be additively manufactured - c) analysing a direction dependence of the property depending on the part geometry, wherein the direction dependence of the property is analysed on the basis of a structural analysis of additively manufactured material, wherein the crystal structure and/or the material phases of the part are analysed, and - d) determining a preferred orientation, in an additive manufacturing plant, of the part to be additively manufactured, on the basis of the analysis of the direction dependence.
Burner device for a gas turbine, the burner device comprising a burner body, wherein the burner body comprises an axial end face, wherein the burner body comprises a first supply channel which has a first opening in the axial end face, a burner end element which is arranged at the axial end face, wherein the burner end element comprises a first plenum chamber which is coupled to the first opening of the first supply channel, such that a first fluid is feedable from the first supply channel to the first plenum chamber, wherein the burner end element further comprises a lattice structure with a plurality of interconnected pores, wherein the first plenum chamber is coupled to the lattice structure for feeding the first fluid into the lattice structure, wherein the lattice structure forms a part of a burner surface which is pointable to a burning chamber of the gas turbine such that a fluid connection between the burning chamber and the lattice structure is formed, characterized in that, the burner body comprises a second supply channel which has a second opening in the axial end face, wherein the burner end element comprises a second plenum chamber which is coupled to the second opening of the second supply channel, such that a second fluid is feedable from the second supply channel to the second plenum chamber, wherein the second plenum chamber is coupled to the lattice structure for feeding the second fluid into the lattice structure, such that the first fluid and the second fluid is mixed together within the lattice structure.
A method of manufacturing a battery cell having an electrode assembly of a cathode/separator/anode structure disposed in a battery case made of aluminum or an aluminum alloy together with an electrolyte in a sealed state, the method comprising: (a) anodizing an entire surface of the battery case in a state in which an uncoated margin section having a predetermined length is provided downward from an outer circumference of an upper end of the battery case; (b) mounting the electrode assembly in the battery case and connecting a cap plate to an open upper end of the battery case by laser welding; (c) injecting an electrolyte through an electrolyte injection port of the cap plate and activating the battery cell; and (d) replenishing the electrolyte and sealing the electrolyte injection port; wherein the uncoated margin section is formed by anodizing the battery case in a state in which an insulation material is applied to the battery case or an insulator or an insulation tape is mounted or attached to the battery case and then removing the insulation material, the insulator, or the insulation tape, and the step (a) further comprises forming a connection opening section, to which charge pins used to activate the battery cell at the step (c) are connected, at a bottom of the battery case. (a) anodizing an entire surface of the battery case in a state in which an uncoated margin section having a predetermined length is provided downward from an outer circumference of an upper end of the battery case; (b) mounting the electrode assembly in the battery case and connecting a cap plate to an open upper end of the battery case by laser welding; (c) injecting an electrolyte through an electrolyte injection port of the cap plate and activating the battery cell; and (d) replenishing the electrolyte and sealing the electrolyte injection port; wherein the uncoated margin section is formed by anodizing the battery case in a state in which an insulation material is applied to the battery case or an insulator or an insulation tape is mounted or attached to the battery case and then removing the insulation material, the insulator, or the insulation tape, and the step (a) further comprises forming a connection opening section, to which charge pins used to activate the battery cell at the step (c) are connected, at a bottom of the battery case.
A thermoplastic resin composition comprising a first copolymer including a conjugated diene-based polymer, a unit derived from an aromatic vinyl-based monomer, and a unit derived from a vinyl cyan-based monomer; a second copolymer including a unit derived from an aromatic vinyl-based monomer and a unit derived from a vinyl cyan-based monomer; with respect to 100 parts by weight of sum of the first copolymer and the second copolymer, 2.0 to 10 parts by weight of a third copolymer having a soft segment including a unit derived from a polyalkylene glycol and a hard segment including a unit derived from an aromatic dicarboxylic acid or aromatic dicarboxylate and a unit derived from a linear aliphatic diol; and 2.5 to 7 parts by weight of a fourth copolymer including an aromatic dicarboxylic acid-derived unit, a unit derived from a linear aliphatic diol, and a unit derived from a cyclic aliphatic diol. a second copolymer including a unit derived from an aromatic vinyl-based monomer and a unit derived from a vinyl cyan-based monomer; with respect to 100 parts by weight of sum of the first copolymer and the second copolymer, 2.0 to 10 parts by weight of a third copolymer having a soft segment including a unit derived from a polyalkylene glycol and a hard segment including a unit derived from an aromatic dicarboxylic acid or aromatic dicarboxylate and a unit derived from a linear aliphatic diol; and 2.5 to 7 parts by weight of a fourth copolymer including an aromatic dicarboxylic acid-derived unit, a unit derived from a linear aliphatic diol, and a unit derived from a cyclic aliphatic diol.