mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a fastening arrangement made of one or more concrete elements, one or more insulation elements (41, 42) and at least one concrete anchor system which in turn comprises a concrete anchor and a fastening element; wherein the concrete anchor in turn comprises a head with a force application portion and a shank defining a longitudinal axis and ending in a tip, wherein the shank comprises a longitudinal stop, at least one external thread portion (6, 10) and at least one anchoring portion with an expanding element, and wherein the shank is at least partially elastically deformable; and the length of the concrete anchor between the longitudinal stop and the tip is greater than the thickness of the one or more insulation elements (41, 42); comprising the following method steps: - providing a mold, - inserting one or more insulation elements (41, 42) into the mold, - screwing at least one concrete anchor into the one or more insulation elements (41, 42) until the longitudinal stop contacts an insulation element, wherein the concrete anchor is subjected to elastic deformation after the tip abuts against the mold and buckles, - casting one or more concrete elements over the one or more insulation layers (41, 42), wherein the head is anchored in the one or more concrete elements and wherein the anchoring portion lies in the one or more insulation elements (41, 42); - removing the arrangement made of the one or more insulation elements (41, 42), the one or more concrete elements and the at least one concrete anchor from the mold, wherein the elastic deformation is at least partially eliminated, and - screwing the fastening element through the tip of the concrete anchor into the hollow portion of the shank into the concrete anchor, so that the concrete anchor is compressed and thus the expansion element is expanded in the one or more insulation elements (41, 42). - providing a mold, - inserting one or more insulation elements (41, 42) into the mold, - screwing at least one concrete anchor into the one or more insulation elements (41, 42) until the longitudinal stop contacts an insulation element, wherein the concrete anchor is subjected to elastic deformation after the tip abuts against the mold and buckles, - casting one or more concrete elements over the one or more insulation layers (41, 42), wherein the head is anchored in the one or more concrete elements and wherein the anchoring portion lies in the one or more insulation elements (41, 42); - removing the arrangement made of the one or more insulation elements (41, 42), the one or more concrete elements and the at least one concrete anchor from the mold, wherein the elastic deformation is at least partially eliminated, and - screwing the fastening element through the tip of the concrete anchor into the hollow portion of the shank into the concrete anchor, so that the concrete anchor is compressed and thus the expansion element is expanded in the one or more insulation elements (41, 42).
A switch (100, 200) comprising an operating element (120, 220) supported by a housing and oscillation operated to one side and another side; a power supply switch mechanism (140, 180, 190, 240, 280, 290) for bringing contacts of a movable piece (182, 192) and a fixed terminal (183, 193) facing each other in the housing into contact with each other when the operating element (120, 220) is oscillation operated to one side; a return spring (160, 260) for biasing the operating element (120, 220) in an oscillation operating direction when the operating element (120, 220) is oscillation operated to the other side; and a power supply holding release mechanism (170, 270) configured by a holding portion (173, 273, 173a, 273a) for holding a contact state of the contacts of the movable piece (182, 192) and the fixed terminal (183, 193) by regulating the return spring (160, 260) in an anti-biasing direction when the operating element (120, 220) is oscillation operated to one side, and a releasing portion (171, 271) for releasing the contact state held by the holding portion (173, 273, 173a, 273a); the power supply switch mechanism (140, 180, 190, 240, 280, 290), the return spring (160, 260), and the power supply holding release mechanism (170, 270) being arranged in an internal space of the housing; wherein the power supply holding release mechanism (170, 270) is arranged on the one side in the oscillation operating direction of the operating element (120, 220) and the power supply switch mechanism (140, 180, 190, 240, 280, 290) is arranged on the other side in the oscillation operating direction of the operating element (120, 220) and characterised in that the power supply holding release mechanism (170, 270) and the power supply switch mechanism (140, 180, 190, 240, 280, 290) are separated and arranged one after another on a virtual line in the oscillation operating direction.
A feedback information transmission method, wherein the method comprises: receiving, by a terminal device, N pieces of different first data in one time unit from N transmission points, wherein each of the N pieces of different first data comprises at least one transport block, and the N pieces of different first data are carried on a same carrier by using a multipoint multi-stream technology, wherein N≥2; receiving, by the terminal device, signaling for indicating a target feedback manner in a plurality of feedback manners, wherein the plurality of feedback manners comprise manners of determining at least one time-frequency resource for carrying feedback information, and the target feedback manner is a feedback manner of the feedback information of the N pieces of different first data, determining, by the terminal device, the at least one time frequency resource, and sending, by the terminal device, feedback information of the N pieces of different first data on the at least one time-frequency resource according to the target feedback manner indicated by the received signaling to the N transmission points, wherein N≥2. receiving, by a terminal device, N pieces of different first data in one time unit from N transmission points, wherein each of the N pieces of different first data comprises at least one transport block, and the N pieces of different first data are carried on a same carrier by using a multipoint multi-stream technology, wherein N≥2; receiving, by the terminal device, signaling for indicating a target feedback manner in a plurality of feedback manners, wherein the plurality of feedback manners comprise manners of determining at least one time-frequency resource for carrying feedback information, and the target feedback manner is a feedback manner of the feedback information of the N pieces of different first data, determining, by the terminal device, the at least one time frequency resource, and sending, by the terminal device, feedback information of the N pieces of different first data on the at least one time-frequency resource according to the target feedback manner indicated by the received signaling to the N transmission points, wherein N≥2.
A device for processing food with stuffing, comprising: a casing; an inclined auger; a vertical auger; a first pressing edge; and a second pressing edge; the casing and the inclined auger together form an extrusion forming mechanism; the first pressing edge and the second pressing edge together form a pressing-breaking mechanism; characterized in that, the inclined auger has an inner cavity formed in a hollow stem of the inclined auger; and the vertical auger is arranged in the inner cavity of the inclined auger; and the stuffing is placed in the inner cavity of the inclined auger; the casing has an inverted cone shape; the inner cavity of the inclined auger has an inverted cone shape; an external profile of the inclined auger has an inverted cone shape; the inner cavity of the inclined auger and the vertical auger together form a feeding mechanism for feeding and loading the stuffing; and the feeding mechanism is embedded in the extrusion forming mechanism; the first pressing edge and the second pressing edge are linked to two link-shafts around which the first pressing edge and the second pressing edge rotate; the two link-shafts are horizontally provided on an outer surface of the casing and axes of the two link-shafts are coincident and perpendicularly intersect with a center axis of the casing; and a first pressing surface is provided on the first pressing edge, and a second pressing surface is provided on the second pressing edge; the first pressing surface is tilted with respect to the second pressing surface. a casing; an inclined auger; a vertical auger; a first pressing edge; and a second pressing edge; the casing and the inclined auger together form an extrusion forming mechanism; the first pressing edge and the second pressing edge together form a pressing-breaking mechanism; characterized in that, the inclined auger has an inner cavity formed in a hollow stem of the inclined auger; and the vertical auger is arranged in the inner cavity of the inclined auger; and the stuffing is placed in the inner cavity of the inclined auger; the casing has an inverted cone shape; the inner cavity of the inclined auger has an inverted cone shape; an external profile of the inclined auger has an inverted cone shape; the inner cavity of the inclined auger and the vertical auger together form a feeding mechanism for feeding and loading the stuffing; and the feeding mechanism is embedded in the extrusion forming mechanism; the first pressing edge and the second pressing edge are linked to two link-shafts around which the first pressing edge and the second pressing edge rotate; the two link-shafts are horizontally provided on an outer surface of the casing and axes of the two link-shafts are coincident and perpendicularly intersect with a center axis of the casing; and a first pressing surface is provided on the first pressing edge, and a second pressing surface is provided on the second pressing edge; the first pressing surface is tilted with respect to the second pressing surface.
An apparatus comprising: a substrate; a first conductive material located in a first device level of a memory device (200, 500), the first conductive material including a first cavity, the first cavity having a first sidewall; a second conductive material located in a second device level of the memory device, the second conductive material including a second cavity, the second cavity having a second sidewall; a first dielectric formed on the first sidewall and the second sidewall; a first memory element located in the first cavity and electrically isolated from the first conductive material by a first portion of the first dielectric; a second memory element located in the second cavity and electrically isolated from the second conductive material by a second portion of the first dielectric; a second dielectric formed on a side of the first memory element and on a side of the second memory element; a conductive channel extending from the first device level to the second device level and facing the first and second memory elements, such that the conductive channel is electrically isolated from the first and second memory elements by at least a respective portion of the second dielectric; and a first data line (251, 252, 253, 651, 652, 653) configured to be selectively coupled to the conductive channel, characterised in that the first data line is located between the second conductive material and the substrate and is configured to allow local erase operation of the memory device (200, 500). a substrate; a first conductive material located in a first device level of a memory device (200, 500), the first conductive material including a first cavity, the first cavity having a first sidewall; a second conductive material located in a second device level of the memory device, the second conductive material including a second cavity, the second cavity having a second sidewall; a first dielectric formed on the first sidewall and the second sidewall; a first memory element located in the first cavity and electrically isolated from the first conductive material by a first portion of the first dielectric; a second memory element located in the second cavity and electrically isolated from the second conductive material by a second portion of the first dielectric; a second dielectric formed on a side of the first memory element and on a side of the second memory element; a conductive channel extending from the first device level to the second device level and facing the first and second memory elements, such that the conductive channel is electrically isolated from the first and second memory elements by at least a respective portion of the second dielectric; and a first data line (251, 252, 253, 651, 652, 653) configured to be selectively coupled to the conductive channel, characterised in that the first data line is located between the second conductive material and the substrate and is configured to allow local erase operation of the memory device (200, 500).
A press hardened steel part wherein the chemical composition of the steel comprises, in weight: 0.062 ≤ C ≤ 0.095 % 1.4 % ≤ Mn ≤ 1.9 % 0.2 % ≤ Si ≤ 0.5 % 0.020 % ≤ Al ≤ 0.070 % 0.02 % ≤ Cr ≤ 0.1 %, wherein: 1.5% ≤ (C + Mn+ Si+ Cr) ≤ 2.7% 0.040 % ≤ Nb ≤ 0.060 % 3.4 × N ≤ Ti ≤ 8 × N wherein: 0.044% ≤ (Nb + Ti) ≤0,090% 0.0002 ≤ B ≤ 0.004 % 0.001 % ≤ N ≤ 0.009 % 0.0005 % ≤ S ≤ 0.003 % 0.001 % ≤ P ≤ 0.020 % optionally: 0.0001% ≤ Ca ≤0.003%, the remainder being Fe and unavoidable impurities, and wherein the microstructure comprises, in the majority of said part, in surface fractions: less than 40% of bainite, less than 5% of austenite, less than 5% of ferrite, the remainder being martensite, said martensite consisting of fresh martensite and of self-tempered martensite, the press hardened steel part having a thickness comprised between 0.8 and 4 mm.
A turbocharger, comprising: a turbocharger housing, a turbocharger shaft received within the turbocharger housing, a turbine wheel affixed to the turbocharger shaft at or adjacent to a first end thereof, a compressor wheel affixed to the turbocharger shaft at or adjacent to a second end thereof, the second end opposite the first end, a first bearing received on the turbocharger shaft between the turbine wheel and the compressor wheel, a second bearing received on the turbocharger shaft between the first bearing and the compressor wheel, and a plate defining an opening therethrough received on and over the turbocharger shaft and secured to the turbocharger housing, the plate defining one or more teeth or tangs or one or more slots or channels, wherein one of the first and second bearings (42, 52) is floating relative to the turbocharger shaft and secured to the turbocharger housing, and the other of the first and second bearings (42, 52) is floating relative to the turbocharger shaft and floating relative to the turbocharger housing, and wherein the one of the first and second bearings (42, 52) defines the other of one or more teeth or tangs or one or more slots or channels, and wherein the one or more teeth or tangs engage the one or more slots or channels to secure the one of the first and second bearings (42, 52) to the plate and to the turbocharger housing and to prevent rotation of the one of the first and second bearings (42, 52) relative to the housing. a turbocharger housing, a turbocharger shaft received within the turbocharger housing, a turbine wheel affixed to the turbocharger shaft at or adjacent to a first end thereof, a compressor wheel affixed to the turbocharger shaft at or adjacent to a second end thereof, the second end opposite the first end, a first bearing received on the turbocharger shaft between the turbine wheel and the compressor wheel, a second bearing received on the turbocharger shaft between the first bearing and the compressor wheel, and a plate defining an opening therethrough received on and over the turbocharger shaft and secured to the turbocharger housing, the plate defining one or more teeth or tangs or one or more slots or channels, wherein one of the first and second bearings (42, 52) is floating relative to the turbocharger shaft and secured to the turbocharger housing, and the other of the first and second bearings (42, 52) is floating relative to the turbocharger shaft and floating relative to the turbocharger housing, and wherein the one of the first and second bearings (42, 52) defines the other of one or more teeth or tangs or one or more slots or channels, and wherein the one or more teeth or tangs engage the one or more slots or channels to secure the one of the first and second bearings (42, 52) to the plate and to the turbocharger housing and to prevent rotation of the one of the first and second bearings (42, 52) relative to the housing.
Method for monitoring a manufacturing process for a food mass, wherein the method comprises - detecting a temporal course (203, 303) of measurement data during the manufacturing process; wherein the measurement data indicates at least one property of the food mass in a container of a kitchen appliance; - determining information in respect of at least one ingredient for manufacturing the food mass which was added to the container during the manufacturing process; wherein the information in respect of the at least one ingredient is determined on the basis of a temporal course of a gradient of the temporal course (203, 303) of measurement data and on the basis of a frequency analysis of at least one time segment (211, 212, 213) of the temporal course (203, 303) of measurement data; and - outputting information in respect of the at least one ingredient to a user of the kitchen appliance in order to support the user when the food mass is being manufactured. - detecting a temporal course (203, 303) of measurement data during the manufacturing process; wherein the measurement data indicates at least one property of the food mass in a container of a kitchen appliance; - determining information in respect of at least one ingredient for manufacturing the food mass which was added to the container during the manufacturing process; wherein the information in respect of the at least one ingredient is determined on the basis of a temporal course of a gradient of the temporal course (203, 303) of measurement data and on the basis of a frequency analysis of at least one time segment (211, 212, 213) of the temporal course (203, 303) of measurement data; and - outputting information in respect of the at least one ingredient to a user of the kitchen appliance in order to support the user when the food mass is being manufactured.
A detergent composition comprising: (i) from 0.0001 to 0.1 wt % of a violet cationic alkoxylated thiophene dye comprising a cationic group covalently bound to alkoxy groups; (ii) a blue dye selected from the chromophore class of triphenyl methane chromophores, wherein the molar ratio of blue dye to violet cationic alkoxylated thiophene dye is in the range from 1:1 to 1:3; and, (iii) from 5 to 70 wt% of surfactants selected from anionic and non-ionic surfactants. contains (i) from 0.0001 to 0.1 wt % of a violet cationic alkoxylated thiophene dye comprising a cationic group covalently bound to alkoxy groups; (ii) a blue dye selected from the chromophore class of triphenyl methane chromophores, wherein the molar ratio of blue dye to violet cationic alkoxylated thiophene dye is in the range from 1:1 to 1:3; and, (iii) from 5 to 70 wt% of surfactants selected from anionic and non-ionic surfactants. contains
A method for reducing harmonic frequency radiation from a printed circuit board, comprising the steps of: providing a printed circuit board and including thereon a transmitting portion configured for transmission of radio frequency signals at a predetermined frequency; said method further including the step of providing an electricity meter, wherein said printed circuit board is mounted within said electricity meter for forming a transmitter function for said electricity meter; characterized in that the method further comprises the steps of: embedding in said printed circuit board an antenna, with said antenna configured so as to radiate said predetermined frequency; embedding in said printed circuit board a filter, said filter including at least one pair of resonators (30, 32, 40, 42, 50) tuned to a predetermined harmonic of said predetermined frequency; and connecting said filter between said transmitting portion and said antenna, wherein said step of providing an electricity meter includes providing an electricity meter case operatively interconnected with said antenna so as to function as part of a radiating element of said antenna. providing a printed circuit board and including thereon a transmitting portion configured for transmission of radio frequency signals at a predetermined frequency; said method further including the step of providing an electricity meter, wherein said printed circuit board is mounted within said electricity meter for forming a transmitter function for said electricity meter; characterized in that the method further comprises the steps of: embedding in said printed circuit board an antenna, with said antenna configured so as to radiate said predetermined frequency; embedding in said printed circuit board a filter, said filter including at least one pair of resonators (30, 32, 40, 42, 50) tuned to a predetermined harmonic of said predetermined frequency; and connecting said filter between said transmitting portion and said antenna, wherein said step of providing an electricity meter includes providing an electricity meter case operatively interconnected with said antenna so as to function as part of a radiating element of said antenna. embedding in said printed circuit board an antenna, with said antenna configured so as to radiate said predetermined frequency; embedding in said printed circuit board a filter, said filter including at least one pair of resonators (30, 32, 40, 42, 50) tuned to a predetermined harmonic of said predetermined frequency; and connecting said filter between said transmitting portion and said antenna, wherein said step of providing an electricity meter includes providing an electricity meter case operatively interconnected with said antenna so as to function as part of a radiating element of said antenna.