mhurhangee/ep-ind-claims huggingface dataset:
A push-push card reader comprising: a contact support, a cover and a push-push mechanism which is actuated by means of a card which is insertable and readable; said push-push mechanism comprising: a reciprocally movable card slide, a control curve channel located in the contact support, a control element which is in engagement with the control curve channel by means of a part of an engagement end, said control element being mounted at another end, the mounting end, at the card slide, wherein said control curve channel comprises a running path which is bordered by inner and outer guide paths (32, 33), and defines in the control curve channel a detent position for the control element, which corresponds to a reading position for the card, wherein said running path of the control curve channel comprises preferably in the area of the detent position of the control curve channel a plurality, preferably only two, height level differences, characterized in that a control curve recess is provided in the cover, said control curve recess is a recess defined by an insert bending portion and a detent position bending portion, said recess defining corresponding to the detent reading position of the card a detent position in the control curve recess, and wherein the control element is in engagement with another part of the engagement end in the control curve recess. a contact support, a cover and a push-push mechanism which is actuated by means of a card which is insertable and readable; a reciprocally movable card slide, a control curve channel located in the contact support, a control element which is in engagement with the control curve channel by means of a part of an engagement end, said control element being mounted at another end, the mounting end, at the card slide, wherein said control curve channel comprises a running path which is bordered by inner and outer guide paths (32, 33), and defines in the control curve channel a detent position for the control element, which corresponds to a reading position for the card, wherein said running path of the control curve channel comprises preferably in the area of the detent position of the control curve channel a plurality, preferably only two, height level differences, a control curve recess is provided in the cover, said control curve recess is a recess defined by an insert bending portion and a detent position bending portion, said recess defining corresponding to the detent reading position of the card a detent position in the control curve recess, and wherein the control element is in engagement with another part of the engagement end in the control curve recess.
A method for determining a flux of a gas contained in a medium through a boundary, the method comprising: measuring at least twice with a probe a concentration C of the gas over a time interval Δt, said probe being placed proximate the boundary, said probe having a gas inlet, a cavity, a gas concentration sensor and a membrane in fluid communication with each other so that the gas flows from said gas inlet through said membrane and contacts said gas concentration sensor; and determining the flux of the gas using the following mathematical relation: F = D ∂ C z t ∂ z z = 0 = D Δ C π Δ t where ΔC is a variation in the gas concentration over the time interval Δ t. where F is the gas flux, D is a diffusivity value of the gas and C(z,t) is said gas concentration as a function of both depth and time, wherein the medium is soil; characterized in that: the gas inlet is equipped with said membrane, the probe is placed on the soil such that the gas inlet is directly in contact with the soil, the gas comes in contact with said gas concentration sensor as the gas flows in the cavity towards a gas exhaust, and said gas continues flowing towards a second membrane of said gas exhaust and into the atmosphere. measuring at least twice with a probe a concentration C of the gas over a time interval Δt, said probe being placed proximate the boundary, said probe having a gas inlet, a cavity, a gas concentration sensor and a membrane in fluid communication with each other so that the gas flows from said gas inlet through said membrane and contacts said gas concentration sensor; and determining the flux of the gas using the following mathematical relation: F = D ∂ C z t ∂ z z = 0 = D Δ C π Δ t where ΔC is a variation in the gas concentration over the time interval Δ t. where F is the gas flux, D is a diffusivity value of the gas and C(z,t) is said gas concentration as a function of both depth and time, wherein the medium is soil; characterized in that: the gas inlet is equipped with said membrane, the probe is placed on the soil such that the gas inlet is directly in contact with the soil, the gas comes in contact with said gas concentration sensor as the gas flows in the cavity towards a gas exhaust, and said gas continues flowing towards a second membrane of said gas exhaust and into the atmosphere.
A method for determining genomic DNA accessibility, the method comprising: (a) a biological sample on an array comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes comprises: (i) a spatial barcode and (ii) a capture domain; (b) contacting a plurality of splint oligonucleotides to the biological sample, wherein a splint oligonucleotide hybridizes to the capture domain; (c) contacting a transposome to the biological sample to insert transposon end sequences into accessible genomic DNA, thereby generating fragmented genomic DNA; (d) hybridizing the fragmented genomic DNA to the splint oligonucleotide and ligating the fragmented genomic DNA to the capture probe; (e) releasing one or more non-ligated transposon end sequences from the ligated fragmented genomic DNA; and (f) determining (i) a sequence of the spatial barcode or a complement thereof, and (ii) all or a portion of a sequence of the fragmented genomic DNA, or a complement thereof, and using the determined sequences of (i) and (ii) to determine genomic DNA accessibility in the biological sample. (a) a biological sample on an array comprising a plurality of capture probes, wherein a capture probe of the plurality of capture probes comprises: (i) a spatial barcode and (ii) a capture domain; (b) contacting a plurality of splint oligonucleotides to the biological sample, wherein a splint oligonucleotide hybridizes to the capture domain; (c) contacting a transposome to the biological sample to insert transposon end sequences into accessible genomic DNA, thereby generating fragmented genomic DNA; (d) hybridizing the fragmented genomic DNA to the splint oligonucleotide and ligating the fragmented genomic DNA to the capture probe; (e) releasing one or more non-ligated transposon end sequences from the ligated fragmented genomic DNA; and (f) determining (i) a sequence of the spatial barcode or a complement thereof, and (ii) all or a portion of a sequence of the fragmented genomic DNA, or a complement thereof, and using the determined sequences of (i) and (ii) to determine genomic DNA accessibility in the biological sample.
A device for measuring a level of a clinically relevant analyte in a fluid, including: a flow path for conducting said fluid through the device; detector means arranged to detect analyte levels in the fluid in said chamber; and characterised by a detection chamber arranged on said flow path, wherein: said detection chamber contains a predetermined amount of an analyte such that that analyte mixes with fluid in the detection chamber to form, at the detector means, a calibration sample of the fluid at a time after the arrival of the fluid in said detection chamber, and said detector means is a single detector (6, 7) and is arranged to detect a first analyte level of an unadulterated sample of the fluid at a first time which is before the formation of said calibration sample and to detect a second analyte level of said calibration sample at a second time which is after the formation of said calibration sample. a flow path for conducting said fluid through the device; detector means arranged to detect analyte levels in the fluid in said chamber; and characterised by a detection chamber arranged on said flow path, wherein: said detection chamber contains a predetermined amount of an analyte such that that analyte mixes with fluid in the detection chamber to form, at the detector means, a calibration sample of the fluid at a time after the arrival of the fluid in said detection chamber, and said detector means is a single detector (6, 7) and is arranged to detect a first analyte level of an unadulterated sample of the fluid at a first time which is before the formation of said calibration sample and to detect a second analyte level of said calibration sample at a second time which is after the formation of said calibration sample. said detection chamber contains a predetermined amount of an analyte such that that analyte mixes with fluid in the detection chamber to form, at the detector means, a calibration sample of the fluid at a time after the arrival of the fluid in said detection chamber, and said detector means is a single detector (6, 7) and is arranged to detect a first analyte level of an unadulterated sample of the fluid at a first time which is before the formation of said calibration sample and to detect a second analyte level of said calibration sample at a second time which is after the formation of said calibration sample.
A compound comprising a modified oligonucleotide and a conjugate group, wherein the modified oligonucleotide consists of 20 linked nucleosides and has a nucleobase sequence comprising 20 contiguous nucleobases complementary to an equal length portion of nucleobases 3901 to 3920 of SEQ ID NO: 1, wherein the nucleobase sequence of the modified oligonucleotide is 100% complementary to SEQ ID NO: 1; and wherein the conjugate group comprises:
A method for designing an implant comprising: (i) determining the mandibular bone size and shape around a natural tooth in situ or a natural void in situ in which a natural tooth has previously been present; (ii) determining one or more anatomical structures around the natural tooth or the natural void; (iii) determining the mandibular bone mineral density and/or the mandibular bone quality around the natural tooth in situ or the natural void in situ; and (iv) determining the marginal soft tissue thickness around the natural tooth in situ or the natural void in situ to determine the quantity of collagen fibers therein, wherein the data acquired from steps (i), (ii), (iii) and (iv) is used to design an implant and wherein steps (i) to (iv) are performed in any order. (i) determining the mandibular bone size and shape around a natural tooth in situ or a natural void in situ in which a natural tooth has previously been present; (ii) determining one or more anatomical structures around the natural tooth or the natural void; (iii) determining the mandibular bone mineral density and/or the mandibular bone quality around the natural tooth in situ or the natural void in situ; and (iv) determining the marginal soft tissue thickness around the natural tooth in situ or the natural void in situ to determine the quantity of collagen fibers therein, wherein the data acquired from steps (i), (ii), (iii) and (iv) is used to design an implant and wherein steps (i) to (iv) are performed in any order.
A method for designing a dental restoration, comprising the steps of: - detecting a target data set (DS-S) based on a natural tooth which reflects the optical properties and the geometry of the natural tooth; - generating a digital tooth model with an internal architecture; - rendering the digital tooth model based on the internal architecture to generate an actual data set which reflects the optical properties and the geometry of the digital tooth model; - calculating a deviation (ΔE S,I) between the target data set (DS-S) and the actual data set (DS-I); and - iterative altering the digital tooth model to obtain a smaller deviation (ΔE S,I) between the detected target data set (DS-S) and the actual data set (DS-I) of the re-rendered digital tooth model, characterized in that the deviation (ΔE S,I) is calculated based on a Euclidean distance between the target data set (DS-S) and the actual data set (DS-I) or the deviation (ΔE S,I) is calculated based on a spectral distance between the target data set (DS-S) and the actual data set (DS-I). - detecting a target data set (DS-S) based on a natural tooth which reflects the optical properties and the geometry of the natural tooth; - generating a digital tooth model with an internal architecture; - rendering the digital tooth model based on the internal architecture to generate an actual data set which reflects the optical properties and the geometry of the digital tooth model; - calculating a deviation (ΔE S,I) between the target data set (DS-S) and the actual data set (DS-I); and - iterative altering the digital tooth model to obtain a smaller deviation (ΔE S,I) between the detected target data set (DS-S) and the actual data set (DS-I) of the re-rendered digital tooth model,
A heterologous chimeric protein, wherein the heterologous chimeric protein has a general structure of: N terminus - (a) - (b) - (c) - C terminus, wherein: (a) is a first domain comprising a portion of V-set and immunoglobulin domain-containing protein 8 (VSIG8) that is capable of binding a VSIG8 ligand and capable of signal transduction, wherein the portion of VSIG8 has an amino acid sequence which is at least 95% identical to the amino acid sequence of SEQ ID NO: 2; (b) is a linker linking the first domain and the second domain, wherein the linker comprises (i) a hinge-CH2-CH3 Fc domain, and (ii) two or more joining linkers each joining linker independently selected from SEQ ID NOs: 28 to 74; wherein one joining linker is N terminal to the hinge-CH2-CH3 Fc domain and another joining linker is C terminal to the hinge-CH2-CH3 Fc domain; and (c) is a second domain comprising a portion of OX40 ligand (OX40L) that is at least 95% identical to the amino acid sequence of SEQ ID NO: 4. (a) is a first domain comprising a portion of V-set and immunoglobulin domain-containing protein 8 (VSIG8) that is capable of binding a VSIG8 ligand and capable of signal transduction, wherein the portion of VSIG8 has an amino acid sequence which is at least 95% identical to the amino acid sequence of SEQ ID NO: 2; (b) is a linker linking the first domain and the second domain, wherein the linker comprises (i) a hinge-CH2-CH3 Fc domain, and (ii) two or more joining linkers each joining linker independently selected from SEQ ID NOs: 28 to 74; wherein one joining linker is N terminal to the hinge-CH2-CH3 Fc domain and another joining linker is C terminal to the hinge-CH2-CH3 Fc domain; and (c) is a second domain comprising a portion of OX40 ligand (OX40L) that is at least 95% identical to the amino acid sequence of SEQ ID NO: 4.
A plant control device comprising: a register configured to register a simulated dangerous condition prepared in advance which is a simulated representation of an operation condition under which a plant is dangerous, the simulated dangerous condition being represented using indexes of measured values of one or more devices provided in the plant; a first acquirer configured to acquire an operation condition of the plant; a learner configured to learn the operation condition acquired and the simulated dangerous condition registered and produce an operation model of the plant; a determiner configured to determine an operation parameter of the plant on the basis of the operation condition acquired and the operation model produced; and an instructor configured to instruct an operation of the plant on the basis of the operation parameter determined, wherein the learner is configured to learn the operation condition acquired and the simulated dangerous condition registered as a loss function indicating nonconformity with the operation condition, associate the operation condition with the loss function, and produce the operation model to increase the loss function in the simulated dangerous condition learned, and the determiner is configured to calculate a loss function of the operation condition acquired and determine the operation parameter to reduce the loss function calculated on the basis of the operation model produced. a register configured to register a simulated dangerous condition prepared in advance which is a simulated representation of an operation condition under which a plant is dangerous, the simulated dangerous condition being represented using indexes of measured values of one or more devices provided in the plant; a first acquirer configured to acquire an operation condition of the plant; a learner configured to learn the operation condition acquired and the simulated dangerous condition registered and produce an operation model of the plant; a determiner configured to determine an operation parameter of the plant on the basis of the operation condition acquired and the operation model produced; and an instructor configured to instruct an operation of the plant on the basis of the operation parameter determined, wherein the learner is configured to learn the operation condition acquired and the simulated dangerous condition registered as a loss function indicating nonconformity with the operation condition, associate the operation condition with the loss function, and produce the operation model to increase the loss function in the simulated dangerous condition learned, and the determiner is configured to calculate a loss function of the operation condition acquired and determine the operation parameter to reduce the loss function calculated on the basis of the operation model produced.
A composition comprising bacteriocin-like inhibitory substance (BLIS)-producing S. salivarius or a S. salivarius extract including one or more of Salivaricin A, A 1, A 2 and B, for use in the prophylactic or therapeutic treatment of halitosis in an individual in need thereof, wherein the S. salivarius produce one or more of Salivaricin A (encoded by SEQ ID NO. 2), Salivaricin A 1 (encoded by SEQ ID NO. 4), Salivaricin A 2 (encoded by SEQ ID NO. 5), Salivaricin B (encoded by SEQ ID NO. 7), or functional variants having at least 70% identity to any one of the Salivaricins encoded by SEQ ID NOs. 2, 4, 5 and 7.
A recording method for a mobile terminal, comprising: recording a quantity of calls and a quantity of recordings, in historical calls between the mobile terminal and a target contact; determining whether the quantity of calls and the quantity of recordings meet preset conditions; when the quantity of calls and the quantity of recordings meet the preset conditions, adding information of the target contact to an automatic recording list; when the mobile terminal is in a call with a contact, obtaining information of the contact in the current call with the mobile terminal; determining whether the information of the contact in the current call is found in the automatic recording list; and activating call recording when the information of the contact in the current call is found in the automatic recording list; wherein the step of determining whether the quantity of calls and the quantity of recordings meet the preset conditions comprises: when the quantity of calls reaches a third preset threshold, determining whether a ratio of the quantity of recordings to the quantity of calls is greater than or equal to a fourth preset threshold; when the ratio of the quantity of recordings to the quantity of calls is greater than or equal to the fourth preset threshold, determining that the quantity of calls and the quantity of recordings meet the preset conditions. recording a quantity of calls and a quantity of recordings, in historical calls between the mobile terminal and a target contact; determining whether the quantity of calls and the quantity of recordings meet preset conditions; when the quantity of calls and the quantity of recordings meet the preset conditions, adding information of the target contact to an automatic recording list; when the mobile terminal is in a call with a contact, obtaining information of the contact in the current call with the mobile terminal; determining whether the information of the contact in the current call is found in the automatic recording list; and activating call recording when the information of the contact in the current call is found in the automatic recording list; wherein the step of determining whether the quantity of calls and the quantity of recordings meet the preset conditions comprises: when the quantity of calls reaches a third preset threshold, determining whether a ratio of the quantity of recordings to the quantity of calls is greater than or equal to a fourth preset threshold; when the ratio of the quantity of recordings to the quantity of calls is greater than or equal to the fourth preset threshold, determining that the quantity of calls and the quantity of recordings meet the preset conditions.
A card with built-in electronic components, comprising: a card base in which an electrical component, a metal dome switch, and a control part are formed on a same substrate, wherein the card base has a thin-plate structure sequentially laminated by a front cover sheet, a core layer, and a back cover sheet, a display part configured to visually display information of a display device is formed on an exposed surface side of the front cover sheet, the metal dome switch includes a switch part having a metal contact and a cover member covering the switch part, the switch part being located more inward than the cover member, and the switch part is arranged spaced away from the cover member, wherein the cover member comprises a laminate of one resin film layer, an adhesive layer, and another resin film layer sequentially layered when viewed from the switch part. a card base in which an electrical component, a metal dome switch, and a control part are formed on a same substrate, wherein the card base has a thin-plate structure sequentially laminated by a front cover sheet, a core layer, and a back cover sheet, a display part configured to visually display information of a display device is formed on an exposed surface side of the front cover sheet, the metal dome switch includes a switch part having a metal contact and a cover member covering the switch part, the switch part being located more inward than the cover member, and the switch part is arranged spaced away from the cover member, wherein the cover member comprises a laminate of one resin film layer, an adhesive layer, and another resin film layer sequentially layered when viewed from the switch part.