mhurhangee/ep-ind-claims huggingface dataset:
A sample loader for loading a liquid sample into a plurality of reaction sites within a substrate, the sample loader comprising: a first blade; a second blade, wherein the first blade is coupled to the second blade; a flow path between the first blade and second blade configured to dispense a liquid sample to a substrate, wherein the substrate includes a plurality of reaction sites, wherein the sample loader is configured for relative lateral movement over the plurality of reaction sites whilst the sample loader is in contact with the substrate so that the liquid sample is deposited over the plurality of reaction sites, wherein the first and second blades are composed of one of the following group consisting of: polyolefins, polyurethanes, and siloxanes. a first blade; a second blade, wherein the first blade is coupled to the second blade; a flow path between the first blade and second blade configured to dispense a liquid sample to a substrate, wherein the substrate includes a plurality of reaction sites, wherein the sample loader is configured for relative lateral movement over the plurality of reaction sites whilst the sample loader is in contact with the substrate so that the liquid sample is deposited over the plurality of reaction sites, wherein the first and second blades are composed of one of the following group consisting of: polyolefins, polyurethanes, and siloxanes.
A carbazole derivative represented by a general formula, wherein R 1 is one selected from the group consisting of hydrogen, an alkyl group having 1 to 6 carbon atoms, an aryl group having 6 to 25 carbon atoms, a heteroaryl group having 5 to 9 carbon atoms, an arylalkyl group, and an acyl group having 1 to 7 carbon atoms; wherein R 2 is a substituent represented by a general formula, wherein each of Ar 1 to Ar 6 is one selected from the group consisting of an aryl group having 6 to 25 carbon atoms and a heteroaryl group having 5 to 9 carbon atoms; wherein each of X and Y is one selected from the group consisting of a bivalent aromatic hydrocarbon group having 6 to 25 carbon atoms and a bivalent heterocyclic group having 5 to 10 carbon atoms, wherein Ar 1 and Ar 4, Ar 2 and Ar 5, Ar 3 and Ar 6, and X and Y have identical structures, respectively, and wherein the aryl groups having 6 to 25 carbon atoms are independently selected from a phenyl group, a 4-biphenyl group, a 1-naphthyl group a 2-naphthyl group, a 9-anthryl group, a 9-phenanthryl group, a 1-pyrenyl group, a 9,9'-dimethyl-2-fluorenyl group, a spiro-9,9'-bifluorene-2-yl group, a m-tolyl group, a p -tolyl group, a 2-fluorophenyl group, a 3-fluorophenyl group, and a 4-fluorophenyl group. wherein R 1 is one selected from the group consisting of hydrogen, an alkyl group having 1 to 6 carbon atoms, an aryl group having 6 to 25 carbon atoms, a heteroaryl group having 5 to 9 carbon atoms, an arylalkyl group, and an acyl group having 1 to 7 carbon atoms; wherein R 2 is a substituent represented by a general formula, wherein each of Ar 1 to Ar 6 is one selected from the group consisting of an aryl group having 6 to 25 carbon atoms and a heteroaryl group having 5 to 9 carbon atoms; wherein each of X and Y is one selected from the group consisting of a bivalent aromatic hydrocarbon group having 6 to 25 carbon atoms and a bivalent heterocyclic group having 5 to 10 carbon atoms, wherein Ar 1 and Ar 4, Ar 2 and Ar 5, Ar 3 and Ar 6, and X and Y have identical structures, respectively, and wherein the aryl groups having 6 to 25 carbon atoms are independently selected from a phenyl group, a 4-biphenyl group, a 1-naphthyl group a 2-naphthyl group, a 9-anthryl group, a 9-phenanthryl group, a 1-pyrenyl group, a 9,9'-dimethyl-2-fluorenyl group, a spiro-9,9'-bifluorene-2-yl group, a m-tolyl group, a p -tolyl group, a 2-fluorophenyl group, a 3-fluorophenyl group, and a 4-fluorophenyl group.
A coupling structure comprising a plurality of laminated terminal blocks (17, 17A, 17B) for coupling a plurality of connector terminals (19, 19A, 19B) with a plurality of wiring members (11a, 11b, 11c) which is configured by arranging in parallel a plurality of flat-type conductors (13, 13A, 13B) in a width direction (a) thereof and covering an outer periphery of the flat-type conductors by an insulation member, wherein the connector terminals (19, 19A, 19B) are electrically coupled to each of the wiring members (11a, 11b, 11c) in an orthogonal manner so as to match to terminal pitches of a complementary connector, wherein each of the plurality of terminal blocks (17, 17A, 17B) is attached to each of the wiring member (11a, 11b, 11c), wherein each of the plurality of terminal blocks (17, 17A, 17B) is formed in a rectangular box shape whose upper surface is opened, wherein each of the plurality of terminal blocks (17, 17A, 17B) is configured such that the connector terminals (19, 19A, 19B) are disposed in parallel so as to cross with the flat-type conductors (13, 13A, 13B) on a same plane and be conductively coupled to the predetermined flat-type conductors (13, 13A, 13B), respectively, characterized in that each of the plurality of terminal blocks (17, 17A, 17B) has a positioning frame part formed at a side wall and erection walls provided on the positioning frame part; and the plurality of terminal blocks (17, 17A, 17B) is stacked by engaging the erection walls with corner portions of the positioning frame parts to constitute a single laminated member.
A pharmaceutical or dietary supplement formulations of cetyl myristate or cetyl palmitate or combination of cetyl myristate and cetyl palmitate characterized in that said formulations are prepared by using of: a) particles of cetyl myristate or cetyl palmitate or combination of cetyl myristate and cetyl palmitate having particle size distribution in the range of 150 μm ≤PSD≤ 1600 μm or, b) powder mixtures of cetyl myristate or cetyl palmitate or combination of cetyl myristate and cetyl palmitate with an excipient or mixtures of excipients having particle size distribution in the range of 150 μm ≤PSD≤ 1600 μm or, c) granules of cetyl myristate or cetyl palmitate or combination of cetyl myristate and cetyl palmitate having particle size distribution in the range of 150 μm ≤PSD≤ 1600 μm wherein particle size distribution of granules, particles and powder mixtures is determined according to US Pharmacopeia General Chapter <786>.
A self-repairing and self-sealing waterproof membrane, for insulating built structures subjected to hydrostatic pressure, comprising a first layer of hermetic polymeric material, suitable to be arranged in contact with an infiltrated surface of said structure, which covers a second layer of water-expanding polymeric material, in which additives of polymeric and/or mineral origin are added, suitable to be arranged in contact with the concrete surface of said structure, said second layer being composed of at least one first sublayer and one second sublayer (3a, 3b) which are contiguous and have different expanding actions and mechanical characteristics, said membrane having substantially the shape of a continuous flat sheet, which gives it the appearance of a uniform film, having a thickness comprised between 0.2 and 5.0 mm and being composed of one or more of the following polymers: TPE, TPO, TPU, EVA, EPDM, EPM, HDPE, MDPE, LDPE, PE, PVC and other polymers of an elastomeric nature, containing optional additions of fillers and of other ingredients in order to give the article the necessary requirements of workability, mechanical strength and durability, said second layer 3 comprising a material that is capable to react in contact with water by expanding, the differentiation of the expanding action between said at least one first sublayer and one second sublayer (3a, 3b) being obtained by acting on the ingredients of the composition, in particular on the water-expanding agents and on the additives that allow to control their behavior, at the same time maintaining the shape and the waterproofness characteristics of said membrane, said first sublayer having a greater expanding action than said second sublayer in order to increase the water reactivity of the central part of said membrane, said second sublayer has a greater dimensional stability than said first sublayer.
An aircraft thruster comprising at least a first propeller provided with a plurality of radial blades extending about an axis of rotation of the said first propeller, which is driven in rotation by a first electric motor, the power supply means of which comprise power circuits carried by a fairing of the thruster, aircraft thruster wherein the circuits of the power electronics are arranged in an annular part integral with the fairing of the thruster, this annular part being arranged around said first propeller, the annular part integral with the fairing surrounding a stator annular part of the electric motor, characterized in that the annular part integral with the fairing and the stator annular part of the electric motor together delimit an annular space, one end of which opens out along the axis of the first propeller and towards the upstream side of the first propeller with respect to the air flow
A process for the production of a radome for radar frequencies of a distance warning system of a motor vehicle with an integrated design element visible from the outside on the surface of a thermoplastic or thermoset support with a three-dimensional appearance of the design element on the surface of the support and a visually transparent coating on the exposed surface of the design element and the surface of the support that surrounds the design element, in which - in a first step, the support is produced, - in a second step, the design element is applied to the surface of the support, characterized in that - in a third step, the transparent layer is applied by spraying, flow coating or dipping to the exposed surface of the design element and to the surface of the support that surrounds the design element. - in a first step, the support is produced, - in a second step, the design element is applied to the surface of the support, characterized in that - in a third step, the transparent layer is applied by spraying, flow coating or dipping to the exposed surface of the design element and to the surface of the support that surrounds the design element.
An airfoil for a gas turbine engine comprising: a first layer (84,88) forming a cavity having transitioning from a first thickness to a second thickness through a ply drop region of the first layer (84,88); a second layer (86,90) secured to the first layer (84,88); a space (100,101) arranged between the first (84,88) and second (86,90) layers, and a filler (92,93) is provided in the space (100,101) at a leading edge and at a trailing edge of the airfoil; and a pressure side wall and a suction side wall provided by the first and second layers (84,86,88,90); wherein each layer (84,86,88,90) includes multiple plies (110,112), characterised in that the ply drop region of the first layer (84,88) includes leading and trailing edge ply drops (102,104); and the first layer (84,88) thickens in the area of the leading and trailing edge fillers (92,93) to provide reinforcement in that area to withstand differential pressures and resist splitting in these regions. a first layer (84,88) forming a cavity having transitioning from a first thickness to a second thickness through a ply drop region of the first layer (84,88); a second layer (86,90) secured to the first layer (84,88); a space (100,101) arranged between the first (84,88) and second (86,90) layers, and a filler (92,93) is provided in the space (100,101) at a leading edge and at a trailing edge of the airfoil; and a pressure side wall and a suction side wall provided by the first and second layers (84,86,88,90); wherein each layer (84,86,88,90) includes multiple plies (110,112), characterised in that the ply drop region of the first layer (84,88) includes leading and trailing edge ply drops (102,104); and the first layer (84,88) thickens in the area of the leading and trailing edge fillers (92,93) to provide reinforcement in that area to withstand differential pressures and resist splitting in these regions.
A WiFi-based communication method, comprising: acquiring, by a WiFi network bridge, Long Term Evolution, LTE, communication link information; initiating, by a WiFi terminal, a WiFi connection establishment request to the WiFi network bridge, and establishing a WiFi communication link with the WiFi network bridge; sending, by the WiFi network bridge, authentication request information to a LTE base transceiver station, and after receiving an authentication success response fed by the LTE base transceiver station, establishing a LTE communication link with the LTE base transceiver station according to the acquired LTE communication link information; wherein the authentication request information sent by the WiFi network bridge to the LTE base transceiver station comprises: authentication information of the WiFi network bridge and authentication information of the WiFi terminal; before the authentication success response fed by the LTE base transceiver station is received, the method further comprises: performing an authentication process, by a LTE authentication device of a LTE network, on the WiFi network bridge and the WiFi terminal according to the authentication request information; wherein the authentication information of the WiFi network bridge and the authentication information of the WiFi terminal comprise: USIM card information and certificate information. acquiring, by a WiFi network bridge, Long Term Evolution, LTE, communication link information; initiating, by a WiFi terminal, a WiFi connection establishment request to the WiFi network bridge, and establishing a WiFi communication link with the WiFi network bridge; sending, by the WiFi network bridge, authentication request information to a LTE base transceiver station, and after receiving an authentication success response fed by the LTE base transceiver station, establishing a LTE communication link with the LTE base transceiver station according to the acquired LTE communication link information; wherein the authentication request information sent by the WiFi network bridge to the LTE base transceiver station comprises: authentication information of the WiFi network bridge and authentication information of the WiFi terminal; before the authentication success response fed by the LTE base transceiver station is received, the method further comprises: performing an authentication process, by a LTE authentication device of a LTE network, on the WiFi network bridge and the WiFi terminal according to the authentication request information; wherein the authentication information of the WiFi network bridge and the authentication information of the WiFi terminal comprise: USIM card information and certificate information.
A set of essentially identical rectangular floor panels (1, 1'), each comprising long edges (4a, 4b) and a first short edge and a second short edge, the first short edge and the second short edge being provided with a mechanical locking system comprising a strip extending horizontally from a lower part of the first short edge and a downwardly open locking groove formed in the second short edge, wherein the strip comprises an upwardly protruding locking element that is configured to cooperate with the locking groove for locking the first short edge and the second short edge in a horizontal direction parallel to the main plane of the panels and in a vertical direction perpendicularly to the horizontal direction, wherein the locking element comprises an inner surface, an outer surface and a top surface, the inner surface being positioned closer to an upper edge of the first panel than the outer surface, and wherein the locking groove comprises an outer groove wall, an inner groove wall and an upper groove wall, the outer groove wall being positioned closer to the upper edge of the second panel than the inner groove wall, the locking element comprising an upper locking surface and the locking groove comprising a lower locking surface, wherein in a locked position, the upper locking surface of the locking element and the lower locking surface of the locking groove are configured to be in contact with each other and to lock the first short edge and the second short edge vertically, and the first short edge and the second short edge comprise a horizontal plane and a first joint edge section located along the first short edge and the second short edge, the first joint edge section being configured such that the outer groove wall of the locking groove and the inner surface of the locking element along the horizontal plane are in contact with each other and lock the first short edge and the second short edge horizontally, characterized in that in said locked position the first short edge and the second short edge further comprise a second joint edge section located along the first short edge and the second short edge, the second joint edge section being configured such that along the horizontal plane there is a space between the outer groove wall of the locking groove and the inner surface of the locking element.
Package of cloth products containing a stack comprising a plurality of cloth products arranged on top of one another, each cloth product comprising a nonwoven fabric impregnated with an impregnating agent, wherein in the stack comprising the cloth products arranged on top of one another there is also arranged at least one barrier layer comprising or consisting of a material having a different absorbing capacity than the nonwoven fabric which the cloth products comprise, wherein the material comprising or consisting of the at least one barrier layer is a liquid-impermeable film, characterized in that the liquid-impermeable film consists of biodegradable and/or compostable plastic.
A shelf stable, baked, brownie formed from a batter comprising: 11-14 wt% flour; 40-50% sweetener comprising sucrose, corn syrup and fructose, present in a ratio of 2.5-3.5/0.5-1.5/0.05-0.15; 14.5-16.5% whole egg; and shortening, the baked brownie having a moisture level of about 16%. 11-14 wt% flour; 40-50% sweetener comprising sucrose, corn syrup and fructose, present in a ratio of 2.5-3.5/0.5-1.5/0.05-0.15; 14.5-16.5% whole egg; and shortening,
An audio controller for generating a signal for alleviating motion sickness, the audio controller comprising: a sensor input module; a user control input; a processor comprising a machine learning model corresponding to a desired audio stimulation profile, the machine learning model being coupled to the sensor input module and the user control input and configured to receive a sensor signal comprising at least one user attribute and at least one context attribute from the sensor input module; a stimulus generator coupled to the machine learning model; and wherein the machine learning model is configured to control the stimulus generator to generate a reference signal for alleviating motion sickness, the reference signal being adapted dependent on at least one of the user control input, and the sensor signal. a sensor input module; a user control input; a processor comprising a machine learning model corresponding to a desired audio stimulation profile, the machine learning model being coupled to the sensor input module and the user control input and configured to receive a sensor signal comprising at least one user attribute and at least one context attribute from the sensor input module; a stimulus generator coupled to the machine learning model; and wherein the machine learning model is configured to control the stimulus generator to generate a reference signal for alleviating motion sickness, the reference signal being adapted dependent on at least one of the user control input, and the sensor signal.
Method for adjusting a control of a heater in order at least partially to be able to take into consideration or compensate for the influences of various air supply systems, exhaust gas systems and/or environmental conditions on the heating performance of the heater, wherein the heater has a conveying apparatus for conveying a fuel-air mixture and a burner for burning the fuel-air mixture, and wherein heat generated by means of the burner can be transferred into a fluid circuit of the building, comprising at least the following steps: a) operating the heater with a specific initial drive power of the conveying apparatus, b) determining an actual heating performance of the heater which is output to the fluid circuit of the building at the initial drive power of the conveying apparatus, c) adapting the control of the heater as a function of the determined actual heating performance and of a predefined target heating performance. a) operating the heater with a specific initial drive power of the conveying apparatus, b) determining an actual heating performance of the heater which is output to the fluid circuit of the building at the initial drive power of the conveying apparatus, c) adapting the control of the heater as a function of the determined actual heating performance and of a predefined target heating performance.
A method of fabricating a diffractive structure with varying diffractive element depth, the method comprising: providing a shadow mask (210, 310) having a first region with a first aperture dimension to aperture periodicity ratio and a second region with a second aperture dimension to aperture periodicity ratio less than the first aperture dimension to aperture periodicity ratio; positioning the shadow mask adjacent a substrate, wherein the substrate (205, 820, 830) comprises an etch mask corresponding to the diffractive structure; exposing the substrate to an etchant; etching the substrate to form diffractive elements adjacent the first region having a first depth; and etching the substrate to form diffractive elements adjacent the second region having a second depth less than the first depth. providing a shadow mask (210, 310) having a first region with a first aperture dimension to aperture periodicity ratio and a second region with a second aperture dimension to aperture periodicity ratio less than the first aperture dimension to aperture periodicity ratio; positioning the shadow mask adjacent a substrate, wherein the substrate (205, 820, 830) comprises an etch mask corresponding to the diffractive structure; exposing the substrate to an etchant; etching the substrate to form diffractive elements adjacent the first region having a first depth; and etching the substrate to form diffractive elements adjacent the second region having a second depth less than the first depth.