mhurhangee/ep-ind-claims huggingface dataset:
A gas sensor module (114, 200, 312) comprising: a gas sensor configured to provide an electrical indication related to a gas; an alignment mechanism (208, 310); a latching feature (110, 204, 308) configured to couple the gas sensor module (114, 200, 312) to a housing device; and a pin guide (106, 202) configured to establish an electrical connection between a header of the housing device and the gas sensor; wherein the gas sensor module (114, 200, 312) is configured to be tool-lessly inserted into the housing device wherein the alignment mechanism (208, 310) is a protrusion on the gas sensor module (114, 200, 312), and wherein the protrusion extends radially from an outside diameter of gas senor module, characterized in that the protrusion has a flattened top portion, a tapered portion and a linear side portion, wherein the flattened top portion, the tapered portion and the linear side portion are configured to align the gas sensor module, when inserted into a housing device, so that the flattened top portion, the tapered portion and the linear side portion are rotatable along with the gas sensor module until aligned with a corresponding alignment portion of the housing device. a gas sensor configured to provide an electrical indication related to a gas; an alignment mechanism (208, 310); a latching feature (110, 204, 308) configured to couple the gas sensor module (114, 200, 312) to a housing device; and a pin guide (106, 202) configured to establish an electrical connection between a header of the housing device and the gas sensor; wherein the gas sensor module (114, 200, 312) is configured to be tool-lessly inserted into the housing device wherein the alignment mechanism (208, 310) is a protrusion on the gas sensor module (114, 200, 312), and wherein the protrusion extends radially from an outside diameter of gas senor module, characterized in that the protrusion has a flattened top portion, a tapered portion and a linear side portion, wherein the flattened top portion, the tapered portion and the linear side portion are configured to align the gas sensor module, when inserted into a housing device, so that the flattened top portion, the tapered portion and the linear side portion are rotatable along with the gas sensor module until aligned with a corresponding alignment portion of the housing device.
A secondary battery comprising: a plurality of electrode assemblies arranged in a layer, adjacent longitudinally to one another; an electrolyte; and a case accommodating the electrode assemblies and the electrolyte; wherein an adjacent pair of the electrode assemblies are spaced apart to form a space portion therebetween, wherein the space portion is arranged to receive the electrolyte for supply to the respective pair of electrode assemblies, and wherein the space portion is connected to an electrolyte injection port. a plurality of electrode assemblies arranged in a layer, adjacent longitudinally to one another; an electrolyte; and a case accommodating the electrode assemblies and the electrolyte;
An in vitro method for identifying and analyzing secretion proteins in the human sweat gland, comprising the following method steps: a) providing at least one three-dimensional sweat gland equivalent, comprising 500 to 500,000 sweat gland cells, wherein the at least one three-dimensional sweat gland equivalent has a diameter of from 100 to 6,000 μm and is free of matrix compounds and carriers, and b) identifying and analyzing at least one secretion protein in the at least one three-dimensional sweat gland equivalent provided in method step a), wherein the at least one secretion protein is an antibacterial secretion protein. a) providing at least one three-dimensional sweat gland equivalent, comprising 500 to 500,000 sweat gland cells, wherein the at least one three-dimensional sweat gland equivalent has a diameter of from 100 to 6,000 μm and is free of matrix compounds and carriers, and b) identifying and analyzing at least one secretion protein in the at least one three-dimensional sweat gland equivalent provided in method step a), wherein the at least one secretion protein is an antibacterial secretion protein.
A solid electrolyte laminate comprising: a solid electrolyte layer having proton conductivity; and a cathode electrode layer laminated on one side of said solid electrolyte layer and made of lanthanum strontium cobalt oxide, wherein said solid electrolyte layer is formed from yttrium-doped barium zirconate, and a doped amount of yttrium is 15 mol% to 20 mol%, and a rate of increase in lattice constant of said solid electrolyte layer at 100°C to 1000°C with respect to temperature changes is 3.3×10 -5 Å/°C (3.3×10 -6 nm/°C) to 4.3×10 -5 Å/°C (4.3×10 -6 nm/°C). a solid electrolyte layer having proton conductivity; and a cathode electrode layer laminated on one side of said solid electrolyte layer and made of lanthanum strontium cobalt oxide, wherein said solid electrolyte layer is formed from yttrium-doped barium zirconate, and a doped amount of yttrium is 15 mol% to 20 mol%, and a rate of increase in lattice constant of said solid electrolyte layer at 100°C to 1000°C with respect to temperature changes is 3.3×10 -5 Å/°C (3.3×10 -6 nm/°C) to 4.3×10 -5 Å/°C (4.3×10 -6 nm/°C).
A method for identifying an unknown microorganism from a sample, the method comprising: providing a cartridge configured to retain an unknown microorganism from a sample and generate ions of the unknown microorganism, wherein the cartridge comprises a porous substrate; and a mass analyzer operably coupled to the cartridge to receive the generated ions of the unknown microorganism; generating the ions of the unknown microorganism from the sample using the cartridge, wherein the generated ions are received by the mass analyzer; obtaining at least one mass spectrum of the unknown microorganism from the mass analyzer; annotating the at least one mass spectrum of the unknown microorganism to generate one or more annotated mass spectra; comparing the one or more annotated mass spectra to a database comprising annotated mass spectra of known organisms; and identifying the unknown organism based on results of the comparison. providing a cartridge configured to retain an unknown microorganism from a sample and generate ions of the unknown microorganism, wherein the cartridge comprises a porous substrate; and a mass analyzer operably coupled to the cartridge to receive the generated ions of the unknown microorganism; generating the ions of the unknown microorganism from the sample using the cartridge, wherein the generated ions are received by the mass analyzer; obtaining at least one mass spectrum of the unknown microorganism from the mass analyzer; annotating the at least one mass spectrum of the unknown microorganism to generate one or more annotated mass spectra; comparing the one or more annotated mass spectra to a database comprising annotated mass spectra of known organisms; and identifying the unknown organism based on results of the comparison.
A fiber-material molding machine configured to place strips of a tape material side by side and mold the tape material into a molded shape having a curved flange portion, the tape material including a continuous fiber bundle extending in a longitudinal direction, the machine comprising: - spreading means capable of increasing a width of the tape material by spreading the tape material; and - placing means configured to place the tape material which has passed through the spreading means onto a surface of a molding tool and capable of changing a direction of the tape material to be placed, wherein the molded shape is a three-dimensional shape having a web portion having a curved edge and a flange portion vertically extending from the curved edge of the web portion, and wherein the spreading means continuously changes the width of the tape material to avoid generation of a gap between adjacent strips of the tape material, the adjacent strips being adjacent to each other when the tape material is placed on the surface of the molding tool, and the placing means places the strips of the tape material side by side in a plurality of rows on the surface of the molding tool while placing the tape material in a curved form so that incidence angles (α) of the strips of the tape material from the web portion to the flange portion are equal with one another. the machine comprising: - spreading means capable of increasing a width of the tape material by spreading the tape material; and - placing means configured to place the tape material which has passed through the spreading means onto a surface of a molding tool and capable of changing a direction of the tape material to be placed, - spreading means capable of increasing a width of the tape material by spreading the tape material; and - placing means configured to place the tape material which has passed through the spreading means onto a surface of a molding tool and capable of changing a direction of the tape material to be placed, wherein the molded shape is a three-dimensional shape having a web portion having a curved edge and a flange portion vertically extending from the curved edge of the web portion, and wherein the spreading means continuously changes the width of the tape material to avoid generation of a gap between adjacent strips of the tape material, the adjacent strips being adjacent to each other when the tape material is placed on the surface of the molding tool, and the placing means places the strips of the tape material side by side in a plurality of rows on the surface of the molding tool while placing the tape material in a curved form so that incidence angles (α) of the strips of the tape material from the web portion to the flange portion are equal with one another.
A hair cosmetic comprising the following Components and: being a cationic polymer having a charge density of 5.0 meq/g or more and 7.0 meq/g or less; and being an anionic polymer comprising 80% by mass or more and 100% by mass or less of a constitutional unit represented by Formula and having a weight-average molecular weight of 4,000 or more and 20,000 or less, wherein R1 represents a hydrogen atom or a carboxy group; and R2 represents a hydrogen atom or a methyl group. being a cationic polymer having a charge density of 5.0 meq/g or more and 7.0 meq/g or less; and being an anionic polymer comprising 80% by mass or more and 100% by mass or less of a constitutional unit represented by Formula and having a weight-average molecular weight of 4,000 or more and 20,000 or less, wherein R1 represents a hydrogen atom or a carboxy group; and R2 represents a hydrogen atom or a methyl group.
A method of decoding video data, the method comprising: receiving, by a video decoder, in a bitstream that comprises an encoded representation of the video data, local quantization information for a current quantization group; determining, by the video decoder, a partitioning of a coding tree unit of a picture of the video data into a plurality of coding units (CUs), the plurality of CUs including one or more non-square CUs; deriving, by the video decoder, based at least in part on the local quantization information for the current quantization group, a quantization parameter, wherein the current quantization group is defined as a group of successive, in coding order, CUs in the plurality of CUs so that boundaries of the current quantization group must be boundaries of the CUs and a size of the current quantization group is greater than or equal to a threshold, and at least one CU of the plurality of CUs is included in a non-square quantization group; inverse quantizing, by the video decoder, based on the quantization parameter, at least one transform coefficient of a current CU, the current CU being one of the CUs in the current quantization group; and reconstructing, by the video decoder, based on inverse quantized transform coefficients of the current CU, a coding block of the current CU. receiving, by a video decoder, in a bitstream that comprises an encoded representation of the video data, local quantization information for a current quantization group; determining, by the video decoder, a partitioning of a coding tree unit of a picture of the video data into a plurality of coding units (CUs), the plurality of CUs including one or more non-square CUs; deriving, by the video decoder, based at least in part on the local quantization information for the current quantization group, a quantization parameter, wherein the current quantization group is defined as a group of successive, in coding order, CUs in the plurality of CUs so that boundaries of the current quantization group must be boundaries of the CUs and a size of the current quantization group is greater than or equal to a threshold, and at least one CU of the plurality of CUs is included in a non-square quantization group; inverse quantizing, by the video decoder, based on the quantization parameter, at least one transform coefficient of a current CU, the current CU being one of the CUs in the current quantization group; and reconstructing, by the video decoder, based on inverse quantized transform coefficients of the current CU, a coding block of the current CU.
A rubber composition comprising: a rubber, a butylphenol formaldehyde resin as a crosslinking agent, and an activating system; wherein the activating system comprises: - zinc oxide, - a chlorinated polymer, and - 2 to 6 phr of a C 6-24 carboxylic acid. a rubber, a butylphenol formaldehyde resin as a crosslinking agent, and an activating system; wherein the activating system comprises: - zinc oxide, - a chlorinated polymer, and - 2 to 6 phr of a C 6-24 carboxylic acid. - zinc oxide, - a chlorinated polymer, and - 2 to 6 phr of a C 6-24 carboxylic acid.
Method for positioning a mobile unit in a motor vehicle, wherein a) the mobile unit is operated by extraneous force and is equipped with an electronic anti-trapping protection, b) in order to position the mobile unit a manual mode or an automatic mode can be selected and the positioning of the mobile unit takes place between two end positions (E1, E2), wherein the end positions are predefined by the type of configuration of the mobile unit in its guiding means, and the positioning can be performed by means of at least one input unit, c) the mobile unit is positioned by means of the input unit, and d) this position of the mobile unit which has then been assumed is stored automatically, e) this stored position can be moved to automatically at the request of a user, characterized in that f) a range (B1, B2) between the end positions (E1, E2) is defined which is located not more than one percentage, for example 5%, with respect to the maximum opening travel of the mobile unit from a closed position as one of the end positions of the mobile unit, g) and the assumed position is stored only if the assumed position lies in the predefined range (B1, B2), h) and the assumed position is stored only if the assumed position is maintained for longer than a predefined time. a) the mobile unit is operated by extraneous force and is equipped with an electronic anti-trapping protection, b) in order to position the mobile unit a manual mode or an automatic mode can be selected and the positioning of the mobile unit takes place between two end positions (E1, E2), wherein the end positions are predefined by the type of configuration of the mobile unit in its guiding means, and the positioning can be performed by means of at least one input unit, c) the mobile unit is positioned by means of the input unit, and d) this position of the mobile unit which has then been assumed is stored automatically, e) this stored position can be moved to automatically at the request of a user, characterized in that f) a range (B1, B2) between the end positions (E1, E2) is defined which is located not more than one percentage, for example 5%, with respect to the maximum opening travel of the mobile unit from a closed position as one of the end positions of the mobile unit, g) and the assumed position is stored only if the assumed position lies in the predefined range (B1, B2), h) and the assumed position is stored only if the assumed position is maintained for longer than a predefined time.
A rock shoe for a longitudinal pile to be installed into ground, the rock shoe comprising: - a dowel comprising neck portion and a drive portion; and - a base plate to be mounted to an end of the pile, the base plate comprising a lower surface provided with a hole extending into the base plate, the hole provided to the base plate is arranged to receive the neck portion of the dowel for securing the dowel to the base plate such that the drive portion of the dowel protrudes from the lower surface of the base plate, wherein the hole of the base plate comprises a tapered hole portion extending and tapering from the lower surface of the base plate into the base plate, and wherein the neck portion of the dowel comprises a tapered neck portion extending and tapering from drive portion and corresponding to the tapered hole portion, characterized in that the rock shoe further comprises a securing means, said securing means comprising a retainer, arranged to an upper end or vicinity thereof of the neck portion of the dowel. - a dowel comprising neck portion and a drive portion; and - a base plate to be mounted to an end of the pile, the base plate comprising a lower surface provided with a hole extending into the base plate,
A Serial Peripheral Interface, SPI, master (110, 400) for transferring data to a peripheral device (PD1, PD2, PD3) in a data communication and processing system, the SPI master comprises: a memory (111, 410) comprising a list of packets, each packet comprises data associated with a time parameter indicating at which time the data is to be transferred to the peripheral device, wherein the time parameter is configurable; and a serial transmit and receive unit (112, 420) to transfer the data in the list at a time according to the time parameter associated with the data. a memory (111, 410) comprising a list of packets, each packet comprises data associated with a time parameter indicating at which time the data is to be transferred to the peripheral device, wherein the time parameter is configurable; and a serial transmit and receive unit (112, 420) to transfer the data in the list at a time according to the time parameter associated with the data.
A solid formulation comprising pimobendan or a pharmaceutically acceptable salt thereof, which is homogenously dispersed in citric acid anhydrous and a flavor acceptable for small animals, characterized in that the amount of citric acid anhydrous is 2.5-10% (w/w).
A hole cleaning apparatus (100, 200) comprising: a member (106, 206, 406); a brush (120, 220, 420) which at least one of the group of: rotates around a longitudinal axis (130, 230) of the member (106, 206, 406); and translates in a direction which is substantially parallel to the longitudinal axis (130, 230) of the member (106, 206, 406); and a vacuum source (114, 119, 214, 221, 414, 419) providing vacuum suction within the member (106, 206, 406), whereby the hole cleaning apparatus further comprises: at least one of the group of: a telescoping member (124, 424a); and a bellowing member (224, 424b), being attached to an end of the member (106, 206, 406); extendable away from the member (106, 206, 406) and retractable towards the member (106, 206, 406); and a biasing member (126, 224, 424b) biasing at least one of the group of: the telescoping member (124, 424a); and the bellowing member (224, 424b), away from the member (106, 206, 406). a member (106, 206, 406); a brush (120, 220, 420) which at least one of the group of: rotates around a longitudinal axis (130, 230) of the member (106, 206, 406); and translates in a direction which is substantially parallel to the longitudinal axis (130, 230) of the member (106, 206, 406); and a vacuum source (114, 119, 214, 221, 414, 419) providing vacuum suction within the member (106, 206, 406), whereby at least one of the group of: a telescoping member (124, 424a); and a bellowing member (224, 424b), being attached to an end of the member (106, 206, 406); extendable away from the member (106, 206, 406) and retractable towards the member (106, 206, 406); and a biasing member (126, 224, 424b) biasing at least one of the group of: the telescoping member (124, 424a); and the bellowing member (224, 424b), away from the member (106, 206, 406).
Hardened spring steel, produced by induction heating to austenitizing temperature, followed by quenching, and induction heating to tempering temperature, wherein the spring steel has a case layer softened by inductive heating and having a thickness of at least 500 μm within which the hardness decreases from the inside to the outside, such that the hardness of the case layer increases with increasing depth from a surface of the spring steel to a depth of at least 500 μm, wherein the case layer has a hardness of at most 590 HV to a depth of at least 500 μm; and wherein said spring steel has a non-softened core portion having a hardness of at least 600 HV starting at a depth of at least 500 μm.
A securing member for attaching a first exterior member (2A1), a second exterior member (2A2), a third exterior member (2A3), and a fourth exterior member (2A4)to a framework of a building, the second exterior member being adjacent to and above the first exterior member, the third exterior member being adjacent to the first exterior member at one side in a horizontal direction, the fourth exterior member being adjacent to and above the third exterior member and being adjacent to the second exterior member at the one side in the horizontal direction, the securing member comprising: a fixing portion that includes a reference surface, that is configured to be fixed to the framework at the reference surface, and that has at least one fixing hole that allows a fastener to be inserted through the fixing portion; a supporting portion that projects from the fixing portion to support the second exterior member and the fourth exterior member; an upper engagement portion (11L, 11R) that is provided on the supporting portion so as to extend upward to engage with the second exterior member and the fourth exterior member; a lower engagement portion that is provided on the supporting portion so as to extend downward to engage with the first exterior member and the third exterior member; and an erected portion that projects from the fixing portion and that is configured to be disposed between opposing end portions of the first exterior member and the third exterior member, wherein the erected portion is disposed on a center line of the fixing portion in a width direction, wherein a specific fixing hole, which is one of the at least one fixing hole that is closest to the center line, is displaced from the center line toward one side in the width direction, and wherein the at least one fixing hole is arranged asymmetrically about the center line. a fixing portion that includes a reference surface, that is configured to be fixed to the framework at the reference surface, and that has at least one fixing hole that allows a fastener to be inserted through the fixing portion; a supporting portion that projects from the fixing portion to support the second exterior member and the fourth exterior member; an upper engagement portion (11L, 11R) that is provided on the supporting portion so as to extend upward to engage with the second exterior member and the fourth exterior member; a lower engagement portion that is provided on the supporting portion so as to extend downward to engage with the first exterior member and the third exterior member; and an erected portion that projects from the fixing portion and that is configured to be disposed between opposing end portions of the first exterior member and the third exterior member, wherein the erected portion is disposed on a center line of the fixing portion in a width direction, wherein a specific fixing hole, which is one of the at least one fixing hole that is closest to the center line, is displaced from the center line toward one side in the width direction, and wherein the at least one fixing hole is arranged asymmetrically about the center line.