mhurhangee/ep-ind-claims huggingface dataset:
An immunochromatographic diagnostic kit including a conjugate pad containing a conjugate that includes chromogenic particles with an average particle diameter of 100 to 1000 nm and a color intensity of 1.0 to 10.0, the particle weight being 10 to 90 wt% derived from cellulose and 90 to 10 wt% derived from a colorant, and a sample pad for an in vitro diagnostic reagent composed of a nonwoven fabric made of regenerated cellulosic fibers, with a basis weight of 10 to 150 g/m 2 and a thickness of 0.07 to 1.00 mm, wherein the coverage factor on the sample pad for the in vitro diagnostic reagent is 70 to 100 % with respect to the conjugate pad, wherein the coverage factor is determined on the basis of the area at the section where the conjugate pad and the sample pad overlap and the area of the entire conjugate pad are determined, and performing the calculation by the following formula: Coverage factor % = area A of overlapping section / total area B 100; and the color intensity of the chromogenic particles is determined by using a JASCO V-650 ultraviolet/visible/near-infrared spectrophotometer by JASCO Corp. (optical system: single monochromator, Czerny-Turner mount, double-beam system, light source: deuterium lamp (190 to 350 nm), halogen lamp (330 to 900 nm)) with a mounted integrating sphere unit ISV-722 by the same manufacturer, the sample used for measurement being an aqueous dispersion of chromogenic particles at an arbitrary concentration, or dry particles, wherein the sample is adjusted to a concentration of 0.01 wt% chromogenic particle and 99.99 wt% purified water using distilled water as the dispersing medium, adding the concentration-adjusted aqueous dispersion in an amount of 2.5 mL to a quartz cell with an optical path length of 10 mm (volume: 3.5 mL, optical path width: 10 mm), and setting the quartz cell in the sample holder of the ultraviolet/visible/near-infrared spectrophotometer, carrying out the measurement and recording, of the obtained absorbance peaks, the absorbance at the maximum in the visible light range of 400 to 800 nm as the color intensity.
A method for detecting a propensity for developing autism or autistic spectrum disorder in a patient, the method comprising detecting the presence of at least one genetic alteration comprising a deletion containing copy number variation in a target polynucleotide, wherein said deletion containing CNV is chr8:43765570-43776595, wherein if said at least one genetic alteration is present, said patient has an increased risk for developing autism and/or autistic spectrum disorder, wherein the at least one genetic alteration is defined by genomic position with reference to NCBI Build 36.
A method, performed by a user equipment relay, for relaying a communication in a network, wherein the user equipment relay relays a communication between a network node entity and at least one target entity, the method comprising: establishing a connection between the network node entity and the at least one target entity; wherein the connection comprises at least one logical channel between the at least one target entity and the user equipment relay on a target side of the connection and between the user equipment relay and the network node entity on an other side of the connection; wherein at least two identifiers are assigned for identifying the connection between the network node entity and the at least one target entity, wherein the at least two identifiers comprise at least one identifier for identifying the target side of the connection and at least one further identifier for identifying the other side of the connection, and wherein upon reception from the network node entity, at the user equipment relay, of data the user equipment relay forwards the received data to the at least one target entity based on the identifier for identifying the target side of the connection. establishing a connection between the network node entity and the at least one target entity; wherein the connection comprises at least one logical channel between the at least one target entity and the user equipment relay on a target side of the connection and between the user equipment relay and the network node entity on an other side of the connection; wherein at least two identifiers are assigned for identifying the connection between the network node entity and the at least one target entity, wherein the at least two identifiers comprise at least one identifier for identifying the target side of the connection and at least one further identifier for identifying the other side of the connection, and wherein upon reception from the network node entity, at the user equipment relay, of data the user equipment relay forwards the received data to the at least one target entity based on the identifier for identifying the target side of the connection.
A substrate having an electron donating surface, wherein said electron donating surface is a metal selected from the group consisting of silver, copper and zinc, characterized in that there are metal particles on said surface, said metal particles comprise palladium and at least one metal selected from the group consisting of gold, ruthenium, rhodium, osmium, iridium, and platinum and wherein the amount of said metal particles is from 0.001 to 8 μg/cm 2.
A drive assembly for a drug delivery system, the drive assembly comprising: a plunger member configured to engage and move a stopper within a container, the plunger member having a first position and a second position axially spaced from the first position; a leadscrew configured to move the plunger member from the first position to the second position; a biasing member configured to bias the leadscrew in a rotational direction; and a drive nut positioned about the leadscrew, the drive nut in a threaded engagement with the leadscrew, the drive nut configured to engage the plunger member to move the plunger member from the first position to the second position, wherein rotational movement of the leadscrew is configured to move the plunger member from the first position to the second position, wherein rotation of the leadscrew is driven by the biasing member, characterized in that the biasing member comprises a constant force spring, and in that the leadscrew comprises a drum portion and a screw portion extending from the drum portion, the biasing member received by the drum portion. a plunger member configured to engage and move a stopper within a container, the plunger member having a first position and a second position axially spaced from the first position; a leadscrew configured to move the plunger member from the first position to the second position; a biasing member configured to bias the leadscrew in a rotational direction; and a drive nut positioned about the leadscrew, the drive nut in a threaded engagement with the leadscrew, the drive nut configured to engage the plunger member to move the plunger member from the first position to the second position, wherein rotational movement of the leadscrew is configured to move the plunger member from the first position to the second position, wherein rotation of the leadscrew is driven by the biasing member, characterized in that the biasing member comprises a constant force spring, and in that the leadscrew comprises a drum portion and a screw portion extending from the drum portion, the biasing member received by the drum portion.
A method for determining a prognosis for benefit for a cancer patient receiving immunotherapy treatment, wherein the immunotherapy treatment comprises use of 5T4, involving (a) measuring a level of platelets and haemoglobin in a sample from the cancer patient, and (b) comparing the level of platelets in the sample to a reference level of platelets and comparing the level of haemoglobin in the sample to a reference level of haemoglobin, wherein a lower level of platelets and higher level of haemoglobin in the sample correlates with increased benefit to the patient.
A method of wireless communication comprising: receiving channel direction information, CDI, (718, 818) from a plurality of access terminals; selecting a set of access terminals from the plurality of access terminals based on the received CDI; creating a beamforming vector for each access terminal in the set of selected access terminals; and transmitting a signal to each access terminal in the set using the created beamforming vectors, the method characterized in that selecting the set comprises, while a number of access terminals in the set is fewer than a number of transmit antennas; identifying an access terminal that has a highest channel norm of a subset of unselected access terminals, wherein the CDI of each of the access terminals in the subset has a low correlation with respect to the CDI of access terminals in the set; and including the identified access terminal in the sent. receiving channel direction information, CDI, (718, 818) from a plurality of access terminals; selecting a set of access terminals from the plurality of access terminals based on the received CDI; creating a beamforming vector for each access terminal in the set of selected access terminals; and transmitting a signal to each access terminal in the set using the created beamforming vectors,
Target reflector search device, designed for automatically locating at least one reflective target mark by a geodetic surveying device, which comprises: ▪ an emitting unit, which emits optical radiation in the form of an emission fan oriented along a first direction, ▪ a motorized device for moving the emission fan along a second direction over a spatial region and for acquiring a value of the second direction, preferably wherein the second direction is oriented substantially orthogonally to the first direction, ▪ a receiving unit, which receives reflected portions of the optical radiation of the emission fan with an optoelectronic detector as at least one reflection within a fan-shaped acquisition region, which acquisition region is moved along with the emission fan, and ▪ a locating unit, which determines a location of the target mark with an analysis of the receiving unit and the second direction, characterized in that the optoelectronic detector is designed as a position-resolving optoelectronic detector having a linear arrangement of multiple pixels, wherein the pixels are formed as SPAD array acquisition units, which are each formed having a plurality of single photon avalanche photodiodes, SPADs, operated in the Geiger mode and interconnected to form a common output signal, per pixel, and the receiving unit comprises an optical system having an imaging fixed-focus optical unit, wherein the optical system and the optoelectronic detector are arranged and configured in such a way that portions of the optical radiation reflected from a point in the acquisition region are expanded on the sensitivity surface of the optoelectronic detector in such a way that blurry imaging takes place. ▪ an emitting unit, which emits optical radiation in the form of an emission fan oriented along a first direction, ▪ a motorized device for moving the emission fan along a second direction over a spatial region and for acquiring a value of the second direction, preferably wherein the second direction is oriented substantially orthogonally to the first direction, ▪ a receiving unit, which receives reflected portions of the optical radiation of the emission fan with an optoelectronic detector as at least one reflection within a fan-shaped acquisition region, which acquisition region is moved along with the emission fan, and ▪ a locating unit, which determines a location of the target mark with an analysis of the receiving unit and the second direction,
A gasoline composition, characterized in that the gasoline composition comprises raw gasoline and sec -butyl acetate, based on total amount of the gasoline composition, the sec -butyl acetate has a content of 2-10wt%, the raw gasoline has a content of 90-98wt%, wherein the raw gasoline is a commercial finished gasoline containing various kinds of additives or a gasoline fraction from an oil refinery or a chemical plant and wherein the raw gasoline further comprises ether-based compounds, alcohol-based compounds and aromatic hydrocarbons, and the total amount of the ether-based, the alcohol-based compounds and the aromatic hydrocarbons present in the said raw gasoline accounting for the 90-98wt% of the total gasoline composition accounts to 0.02-33wt% of the total gasoline composition; the said aromatic hydrocarbons present in the said raw gasoline accounting for the 90-98wt% of the total gasoline composition are one or more selected from the group consisting of benzene, toluene, ethylbenzene, xylene, trimethylbenzene and C10 aromatic hydrocarbon and the said aromatic hydrocarbons content accounts to 0.02-33wt% of the total gasoline composition; the said ether-based compounds present in the said raw gasoline accounting for the 90-98wt% of the total gasoline composition are one or more selected from the group consisting of methyl tert -butyl ether, ethyl tert -butyl ether, tert -amyl methyl ether and dibutyl ether, and the said ether-based compounds content accounts to 0.1-15wt% of the total gasoline composition; the said alcohol-based compounds present in the said raw gasoline accounting for the 90-98wt% of the total gasoline composition are one or more selected from the group consisting of methanol, ethanol, n -butanol, sec -butanol and tert -butanol, and the said alcohol-based compounds content accounts to 0.02-10wt% of the total gasoline composition.
A panel mount comprising: a support (12, 68, 130, 142, 162, 210, 320); a plurality of fastening elements (14, 70, 98, 118, 120, 164, 310) spaced along the support (12, 68, 130, 142, 162, 210, 320); each fastening element (14, 70, 98, 118, 120, 164, 310) has a fastener-support mating portion (16, 60, 24, 166, 326, 354, 368, 374) for engagement with a corresponding support-fastener mating portion (18, 34, 66, 102, 106, 144, 168, 376) of the support (12, 68, 130, 142, 162, 210, 320); the support (12, 68, 130, 142, 162, 210, 320) having the corresponding support-fastener mating portions (18, 34, 66, 102, 106, 144, 168, 376) disposed there along, wherein each fastening element (14, 70, 98, 118, 120, 164, 310) is configured for engaging at least one inner surface of a panel member (78, 200) to apply an engaging force that is directed laterally outwardly, relative to the panel member (78, 200), when the panel member (78, 200) is engaged by the fastening element (14, 70, 98, 118, 120, 164, 310), whereby each fastening element (14, 70, 98, 118, 120, 164, 310) comprises a first end with an extension (26, 132, 136, 186, 198), the extension (26, 132, 136, 186, 198) including at least two sets of downwardly directed extensions (28, 188, 208, 356) extending at different heights downwardly from the body of the extension (26, 132, 136, 186, 198) towards lateral sides of a panel member (78, 200) for bearing against inner surfaces of the panel member (78, 200) to apply an engaging force in a direction laterally outwardly relative to the panel member (78, 200), whereby said fastening element (14, 70, 98, 118, 120, 164, 310) has the fastener-support mating portion (16, 60, 24, 166, 326, 354, 368, 374) at a second end for engagement with the corresponding support-fastener mating portion (18, 34, 66, 102, 106, 144, 168, 376) of the support (12, 68, 130, 142, 162, 210, 320), wherein the support (12, 68, 130, 142, 162, 210, 320) has openings (36, 100, 116, 134, 158, 170, 322) spaced along the support (12, 68, 130, 142, 162, 210, 320); characterized in that the openings (36, 100, 116, 134, 158, 170, 322) are spaced along an elongate side of the support (12, 68, 130, 142, 162, 210, 320) that is opposite the support-fastener mating portions (18, 34, 66, 102, 106, 144, 168, 376); each fastening element (14, 70, 98, 118, 120, 164, 310) having to be pushed through a corresponding one of the openings (36, 100, 116, 134, 158, 170, 322) towards the corresponding support-fastener mating portion (18, 34, 66, 102, 106, 144, 168, 376) and engage therewith to hold the fastening element (14, 70, 98, 118, 120, 164, 310) to the support (12, 68, 130, 142, 162, 210, 320) and each fastening element (14, 70, 98, 118, 120, 164, 310) receives a panel member (78, 200) extending through the associated opening (36, 100, 116, 134, 158, 170, 322) of the support (12, 68, 130, 142, 162, 210, 320).
Method for generating a machining program defining a trajectory of a tool for a part having a first portion able to be machined with only linear axes followed by a second portion requiring machining with linear axes and one or two rotary axes, said method including: - generating a base code defining the trajectory of the tool with, for the first portion, a first journey where a relative movement between the tool and the part is done only along linear axes followed, for the second portion, by a second journey where the relative movement is done along linear axes and the rotary axis or the two rotary axes, characterized in that it further includes, before the execution of said machining program on a digital command: - optimizing the base code in order to modify the trajectory previously defined, using the following steps: - modifying the first journey with the relative movement taking place along the linear axes and the one or two rotary axes before beginning the second journey, the modification of the first journey taking place by modifying the alignment and the distribution of orientation vectors of the tool on said first journey; - reconstruction by polynomial interpolation of the profile of a kinematic property of said or of one of said two rotary axes on the first journey in order to eliminate the discontinuities on the profile. - generating a base code defining the trajectory of the tool with, for the first portion, a first journey where a relative movement between the tool and the part is done only along linear axes followed, for the second portion, by a second journey where the relative movement is done along linear axes and the rotary axis or the two rotary axes, characterized in that it further includes, before the execution of said machining program on a digital command: - optimizing the base code in order to modify the trajectory previously defined, using the following steps: - modifying the first journey with the relative movement taking place along the linear axes and the one or two rotary axes before beginning the second journey, the modification of the first journey taking place by modifying the alignment and the distribution of orientation vectors of the tool on said first journey; - reconstruction by polynomial interpolation of the profile of a kinematic property of said or of one of said two rotary axes on the first journey in order to eliminate the discontinuities on the profile. - modifying the first journey with the relative movement taking place along the linear axes and the one or two rotary axes before beginning the second journey, the modification of the first journey taking place by modifying the alignment and the distribution of orientation vectors of the tool on said first journey; - reconstruction by polynomial interpolation of the profile of a kinematic property of said or of one of said two rotary axes on the first journey in order to eliminate the discontinuities on the profile.
A combustor panel comprising: an attachment feature having a central longitudinal axis and extending from a cold side of the combustor panel, the attachment feature defining a core passage extending from an inlet opening through the attachment feature substantially parallel to the central longitudinal axis; a network of cooling passages defined in the combustor panel, wherein a first portion of the cooling passages extends from and perpendicular to the core passage, and a second portion of the cooling passages extends at an angle from the first portion to a hot side of the combustor panel to deliver effusion cooling to the hot side of the combustor panel via a plurality of effusion outlets; and a plurality of standoffs extending from the cold side of the combustor panel and distributed circumferentially around the attachment feature, wherein the network of cooling passages is substantially confined within a footprint of the plurality of standoffs, the core passage is the exclusive source of cooling airflow to the network of cooling passages, and the second portion of the cooling passages comprises the plurality of effusion outlets defined on the hot side of the combustor panel; wherein each effusion outlet of the plurality of effusion outlets is oriented in the same, uniform direction as the other effusion outlets. an attachment feature having a central longitudinal axis and extending from a cold side of the combustor panel, the attachment feature defining a core passage extending from an inlet opening through the attachment feature substantially parallel to the central longitudinal axis; a network of cooling passages defined in the combustor panel, wherein a first portion of the cooling passages extends from and perpendicular to the core passage, and a second portion of the cooling passages extends at an angle from the first portion to a hot side of the combustor panel to deliver effusion cooling to the hot side of the combustor panel via a plurality of effusion outlets; and a plurality of standoffs extending from the cold side of the combustor panel and distributed circumferentially around the attachment feature, wherein the network of cooling passages is substantially confined within a footprint of the plurality of standoffs, the core passage is the exclusive source of cooling airflow to the network of cooling passages, and the second portion of the cooling passages comprises the plurality of effusion outlets defined on the hot side of the combustor panel; wherein each effusion outlet of the plurality of effusion outlets is oriented in the same, uniform direction as the other effusion outlets.
A scintillator material comprising a composition of Formula: [(Lu 1-x Y x) 1-y-z A y B z] 3 Al 5 O 12, wherein: 0.05≤x≤0.5; 0.0001≤y≤0.015; 0.0002≤z≤0.1; A is Pr 3+; and B is at least one type of monovalent cation selected from the group consisting of Li, Na, and K. 0.05≤x≤0.5; 0.0001≤y≤0.015; 0.0002≤z≤0.1; A is Pr 3+; and B is at least one type of monovalent cation selected from the group consisting of Li, Na, and K.