mhurhangee/ep-ind-claims huggingface dataset:
An epoxy-modified silicone resin having a weight average molecular weight of 3,000 to 500,000, represented by the general formula: wherein R 1 is a trivalent or tetravalent C 3 -C 20 hydrocarbon group, R 2 is hydrogen or methyl, n is 3 or 4, A is a number of 0.05 to 0.6, B is a number of 0.3 to 0.8, C is a number of 0 to 0.6, A+B+C = 1, Q-X-R is independently an organic group of the following formula, or: wherein R 3 is independently a substituted or unsubstituted, C 1 -C 8 monovalent hydrocarbon group, R 4 is independently a C 1 -C 8 monovalent hydrocarbon group, R 5 is a C 1 -C 15 divalent hydrocarbon group, m1 is a positive number of 1 to 1,000, m2 is a number of 0 to 998, S-Y-S' is independently an organic group of the following formula,, or: wherein R 3, R 4, and R 5 are as defined above, m3 is a positive number of 1 to 1,000, m4 is a number of 0 to 998, Z is a C 1 -C 15 divalent organic group, p is 0 or 1, R 6 which may be the same or different is a C 1 -C 4 alkyl or alkoxy group, j is 0, 1 or 2, P and Q each designate a valence bond, P bonds to Q, R is R 3 or a valence bond to P or S, S is -(CH 2) h - to bond to R, h is 2 or 3, and S' is R 3 or S, wherein the weight average molecular weight is measured by gel permeation chromatography versus monodisperse polystyrene standards using GPC columns under analytical conditions as specified in the description. wherein R 1 is a trivalent or tetravalent C 3 -C 20 hydrocarbon group, R 2 is hydrogen or methyl, n is 3 or 4, A is a number of 0.05 to 0.6, B is a number of 0.3 to 0.8, C is a number of 0 to 0.6, A+B+C = 1, Q-X-R is independently an organic group of the following formula, or: wherein R 3 is independently a substituted or unsubstituted, C 1 -C 8 monovalent hydrocarbon group, R 4 is independently a C 1 -C 8 monovalent hydrocarbon group, R 5 is a C 1 -C 15 divalent hydrocarbon group, m1 is a positive number of 1 to 1,000, m2 is a number of 0 to 998, S-Y-S' is independently an organic group of the following formula,, or: wherein R 3, R 4, and R 5 are as defined above, m3 is a positive number of 1 to 1,000, m4 is a number of 0 to 998, Z is a C 1 -C 15 divalent organic group, p is 0 or 1, R 6 which may be the same or different is a C 1 -C 4 alkyl or alkoxy group, j is 0, 1 or 2, P and Q each designate a valence bond, P bonds to Q, R is R 3 or a valence bond to P or S, S is -(CH 2) h - to bond to R, h is 2 or 3, and S' is R 3 or S, wherein the weight average molecular weight is measured by gel permeation chromatography versus monodisperse polystyrene standards using GPC columns under analytical conditions as specified in the description.
A battery module, comprising: a plurality of batteries, arranged in a longitudinal direction, each battery is provided with an explosion-proof valve; an upper cover, disposed above the plurality of batteries in an up and down direction; and a pressing strip, disposed between the plurality of batteries and the upper cover and covers the explosion-proof valves of the batteries, and the pressing strip comprises: a main body portion and a bottom plate portion which connected to the main body portion and forms an accommodating cavity together with the main body portion, and a fire extinguishing agent is sealed in the accommodating cavity; wherein the bottom plate portion of the pressing strip is configured to discharge the fire extinguishing agent from the accommodating cavity after being melted; thicknesses of the bottom plate portion is smaller than thicknesses of the main body portion; and the bottom plate portion comprises: a body and a plurality of weakened areas which disposed on the body at intervals in the longitudinal direction; each weakened area corresponds to an explosion-proof valve of a battery and is configured to discharge the fire extinguishing agent from the accommodating cavity after being melted. a plurality of batteries, arranged in a longitudinal direction, each battery is provided with an explosion-proof valve; an upper cover, disposed above the plurality of batteries in an up and down direction; and a pressing strip, disposed between the plurality of batteries and the upper cover and covers the explosion-proof valves of the batteries, and the pressing strip comprises: a main body portion and a bottom plate portion which connected to the main body portion and forms an accommodating cavity together with the main body portion, and a fire extinguishing agent is sealed in the accommodating cavity; wherein the bottom plate portion of the pressing strip is configured to discharge the fire extinguishing agent from the accommodating cavity after being melted; thicknesses of the bottom plate portion is smaller than thicknesses of the main body portion; and the bottom plate portion comprises: a body and a plurality of weakened areas which disposed on the body at intervals in the longitudinal direction; each weakened area corresponds to an explosion-proof valve of a battery and is configured to discharge the fire extinguishing agent from the accommodating cavity after being melted.
A sealable molded body for the packaging of oral biologics, particularly oral vaccines, formed from at least one composite film, whereby the composite film comprises at least three layers, namely two outer layers and at least one middle layer, wherein the first outer layer is formed as a sealing layer, the second outer layer comprises at least a nonwoven material or a nonwoven material is applied onto the second outer layer, the nonwoven material being biodegradable, and the at least one middle layer is a barrier layer, and wherein the second outer layer has at least on the surface properties that allow other components, chemicals or substances to stick or to glue or to adhere on that surface.
An adhesive for inorganic fibers comprising SiO 2, CaO and Al 2 O 3 within the range II defined by the following points 1, 7, 28, 17, 14 and 13 in the SiO 2 -Al 2 O 3 -CaO state diagram shown in Fig. 1, and comprising no zeolite, the adhesive being for adhering shaped articles comprising inorganic fibers. Point 1: SiO 2 (100%) Al 2 O 3 (0%) CaO (0%) Point 7: SiO 2 (30.7%) Al 2 O 3 (69.3%) CaO (0%) Point 28: SiO 2 (51.7%) Al 2 O 3 (40.8%) CaO (7.5%) Point 17: SiO 2 (64.2%) Al 2 O 3 (21.5%) CaO (14.3%) Point 14: SiO 2 (64.2%) Al 2 O 3 (17.9%) CaO (17.9%) Point 13: SiO 2 (58.3%) Al 2 O 3 (0%) CaO(41.7%) Point 1: SiO 2 (100%) Al 2 O 3 (0%) CaO (0%) Point 7: SiO 2 (30.7%) Al 2 O 3 (69.3%) CaO (0%) Point 28: SiO 2 (51.7%) Al 2 O 3 (40.8%) CaO (7.5%) Point 17: SiO 2 (64.2%) Al 2 O 3 (21.5%) CaO (14.3%) Point 14: SiO 2 (64.2%) Al 2 O 3 (17.9%) CaO (17.9%) Point 13: SiO 2 (58.3%) Al 2 O 3 (0%) CaO(41.7%)
A slow release dosage form comprising at least one form of tapentadol selected from the group consisting of tapentadol base, optically active enantiomers of tapentadol, and pharmaceutically acceptable salts of tapentadol, and at least one opioid antagonist selected from the group consisting of naloxone and naltrexone and pharmaceutically acceptable salts thereof, wherein the antagonist improves the efficacy and/or reduces the side effects of tapentadol and wherein the said dosage form provides effective pain relief for at least 12 hours, when administered to a human patient.
Method for preparing a coating material composition or a precursor thereof that can be used in the automobile industry, the method comprising at least step 1, that is 1 weighing out all the components required for preparing the coating material composition or the precursor thereof into a container suitable for weighing them out by means of at least one metering valve when using a gravimetric metering system, characterized in that the components that are weighed out into the container are mixed by means of at least one stirring body throughout the course of carrying out step 1 and a continuous adaptation of the position of the at least one stirring body to the respective filling level within the container takes place throughout the course of carrying out step 1, the respective filling level being predetermined by the amount and number of components that are weighed out into the container and the position of the at least one stirring body corresponding to the height of the stirring body within the container, calculated from the bottom of the container. 1 weighing out all the components required for preparing the coating material composition or the precursor thereof into a container suitable for weighing them out by means of at least one metering valve when using a gravimetric metering system, characterized in that the components that are weighed out into the container are mixed by means of at least one stirring body throughout the course of carrying out step 1 and a continuous adaptation of the position of the at least one stirring body to the respective filling level within the container takes place throughout the course of carrying out step 1, the respective filling level being predetermined by the amount and number of components that are weighed out into the container and the position of the at least one stirring body corresponding to the height of the stirring body within the container, calculated from the bottom of the container. weighing out all the components required for preparing the coating material composition or the precursor thereof into a container suitable for weighing them out by means of at least one metering valve when using a gravimetric metering system, characterized in that the components that are weighed out into the container are mixed by means of at least one stirring body throughout the course of carrying out step 1 and a continuous adaptation of the position of the at least one stirring body to the respective filling level within the container takes place throughout the course of carrying out step 1, the respective filling level being predetermined by the amount and number of components that are weighed out into the container and the position of the at least one stirring body corresponding to the height of the stirring body within the container, calculated from the bottom of the container.
A management method for managing the energy range of a rechargeable battery pack of an assisted pedal electrical bicycle including an electrical machine controllable for supplying a torque according to a pedal assistance factor, defined as a torque multiplying factor, said torque supplied by the electrical machine being summed to the one generated by a cyclist through the pedaling, the management method including the following steps: a) selecting a route to be traveled by the electrical bicycle starting from an initial position; b) obtaining data representative of the altitude profile of the selected route and dividing the route in a plurality of segments each being characterized by a respective altitude parameter; c) calculating a value correlated to the maximum percentage of battery pack discharge on the selected route as a function of the altitude profile and of a limit pedal assistance factor K_limit, calculating a value for each segment representative of the percentage of battery pack discharge on the segment as a function of a limit pedal assistance factor K_limit associated to each segment based on the altitude parameter associated to the segment; d) starting from the calculation carried out in step c), verifying whether the battery pack has a residual positive charge or not at the end of the route; wherein, if following that step d) of verifying it is determined that the battery pack does not have a residual positive charge at the end of the route, then the management method iteratively repeats the steps c) and d) modifying the limit pedal assistance factor K_limit based on one or more adjustment curves each allowing to obtain a new limit pedal assistance factor for each segment as a function of the segment slope. a) selecting a route to be traveled by the electrical bicycle starting from an initial position; b) obtaining data representative of the altitude profile of the selected route and dividing the route in a plurality of segments each being characterized by a respective altitude parameter; c) calculating a value correlated to the maximum percentage of battery pack discharge on the selected route as a function of the altitude profile and of a limit pedal assistance factor K_limit, calculating a value for each segment representative of the percentage of battery pack discharge on the segment as a function of a limit pedal assistance factor K_limit associated to each segment based on the altitude parameter associated to the segment; d) starting from the calculation carried out in step c), verifying whether the battery pack has a residual positive charge or not at the end of the route;
A practice device for checking the alignment of a person, in particular a golfer, by the person him/herself and relative to an underlying surface, having a many-faced basic body which is basically in the shape of a polyhedron with at least partially flat outer faces that are parallel in pairs and comprise at least two lateral faces (18, 20), a front face and a rear face and having means for setting up on an underlying surface, at least the lateral faces (18, 20), the front face and the rear face being aligned at least substantially perpendicular to an imaginary plane running through the setting up means, characterized in that the two opposite lateral faces (18, 20) are arranged at a distance that corresponds at least substantially to a human interocular distance of between 5 cm and 8 cm, the two opposite lateral faces (18, 20) respectively having a wedge-shaped or V-shaped notch (34, 36) that respectively extends in a vertical direction.
Filtering device with a filter element in a filter housing, with an annular filter medium body of the filter element, wherein an end disc is disposed on the front face of the filter medium body, wherein the filter medium body encircles an internal flow chamber for receiving a fluid to be filtered, wherein between the outer contour of the end disc and the interior side of a housing wall of the filter housing is located an annularly surrounding flow path, into which guide vanes, which are attached to the end disc on the filter element, project sectionwise, characterized in that one part of the flow path is covered by a cover, which is disposed on the end disc of the filter element.
An automated brazing system with a conveyer, by which a heat exchanger comprising aluminum and/or aluminum alloy and comprising a series of elongated "U"-shaped tubes inserted into a densely arranged pack of fins, the tubes being circuited or joined to each other at opposite ends by brazed-in-place return bends, the tubes and the return bends including aluminum/aluminum alloy, is conveyed along a path defined sequentially through pre-heating and brazing zones (37, 35), the system comprising: a first set of burners disposed within the pre-heating and brazing zones at a first side of the path to heat components of the heat exchanger from the first side substantially uniformly along respective lengths of the pre-heating and brazing zones (37, 35); and a second set of burners disposed within the pre-heating and brazing zones (37, 35) at a second side of the path to heat the components of the heat exchanger from the second side substantially uniformly along the respective lengths of the pre-heating and brazing zones (37, 35); the first and second sides (211, 212) opposing one another and the first and second sets of burners (50, 51) heating the heat exchanger substantially uniformly at the first and second sides (211, 212), such that each side of each of the components is heated to a substantially similar temperature as each side of each of the other components; characterised in that each of the first and second sets of burners (50, 51) comprises at least first and second tiers (52, 53) of burners, the first tier of burners being substantially coplanar, and the second tier of burners being substantially coplanar and displaced from a plane of the first tier of burners; wherein the burners of the first tier of burners are angled; wherein a portion of the angled burners of the first tier of burners define the pre-heating zone upstream from the brazing zone; and wherein the burners of the brazing zone are configured to maintain a temperature sufficient for aluminum/aluminum alloy brazing and the burners of the pre-heating zone are configured to be maintained at a lower temperature than the burners of the brazing zone, and the burners in the brazing zone being configured for a precise temperature control within the brazing zone. a first set of burners disposed within the pre-heating and brazing zones at a first side of the path to heat components of the heat exchanger from the first side substantially uniformly along respective lengths of the pre-heating and brazing zones (37, 35); and a second set of burners disposed within the pre-heating and brazing zones (37, 35) at a second side of the path to heat the components of the heat exchanger from the second side substantially uniformly along the respective lengths of the pre-heating and brazing zones (37, 35); the first and second sides (211, 212) opposing one another and the first and second sets of burners (50, 51) heating the heat exchanger substantially uniformly at the first and second sides (211, 212), such that each side of each of the components is heated to a substantially similar temperature as each side of each of the other components;
A monitoring system for conductor pins exposed to conductive/corrosive fluids, comprising: a first sensing portion having a pin monitoring section to measure a pin current flow of at least one conductor pin, compare the pin current flow to a predetermined range of values, and produce a first signal indicative of the pin current flow; and a second sensing portion configured to produce a second signal indicative by a contactless determination the presence of a fastener providing physical connection between an interface member and a component having the at least one conductor pin positioned therein; and a decision logic device to receive the first and second signals and isolating electrical power to the at least one conductor pin when the first signal indicates the pin current flow of at least one conductor pin is outside of the predetermined range of values, characterized in that the decision logic device is a programmable microcontroller. a first sensing portion having a pin monitoring section to measure a pin current flow of at least one conductor pin, compare the pin current flow to a predetermined range of values, and produce a first signal indicative of the pin current flow; and a second sensing portion configured to produce a second signal indicative by a contactless determination the presence of a fastener providing physical connection between an interface member and a component having the at least one conductor pin positioned therein; and a decision logic device to receive the first and second signals and isolating electrical power to the at least one conductor pin when the first signal indicates the pin current flow of at least one conductor pin is outside of the predetermined range of values, characterized in that the decision logic device is a programmable microcontroller.
A multi-mode resonator comprising: a housing provided with a cavity corresponding to a substantially single accommodation space; a plurality of metallic resonance arms (2211 - 2214) which are arranged with a predetermined interval therebetween in the cavity such as to generate a resonant signal by multiple coupling therebetween; and a plurality of resonance legs (2221 - 2224) which support the plurality of resonance arms (2211 - 2214), respectively; wherein the plurality is a multiple of 2, and the multi-mode resonator further comprises a tuning screw installed in a center of an entire structure of the plurality of resonance arms (2211 - 2214), wherein at least a pair of resonance arms (2211 - 2214) has a plate shape, wherein at least an edge portion of at least one of the plurality of resonance arms (2211 - 2214) is cut. a housing provided with a cavity corresponding to a substantially single accommodation space; a plurality of metallic resonance arms (2211 - 2214) which are arranged with a predetermined interval therebetween in the cavity such as to generate a resonant signal by multiple coupling therebetween; and a plurality of resonance legs (2221 - 2224) which support the plurality of resonance arms (2211 - 2214), respectively; wherein the plurality is a multiple of 2, and the multi-mode resonator further comprises a tuning screw installed in a center of an entire structure of the plurality of resonance arms (2211 - 2214), wherein at least a pair of resonance arms (2211 - 2214) has a plate shape, wherein at least an edge portion of at least one of the plurality of resonance arms (2211 - 2214) is cut.
A medical apparatus for insertion into a subject, the medical apparatus comprising: a handle portion; a moveable component configured to be inserted into the subject; a rotatable component disposed in the handle portion and operatively coupled to the moveable component to produce axial movement of the moveable component relative to the handle portion upon rotation of the rotatable component; a motor disposed in the handle portion and operatively coupled to the rotatable component to produce rotation of the rotatable component and corresponding axial movement of the moveable component; and a pull cord configured to produce rotation of the rotatable component and corresponding axial movement of the moveable component when a manual pulling force is applied to the pull cord to pull the pull cord relative to the rotatable component. a handle portion; a moveable component configured to be inserted into the subject; a rotatable component disposed in the handle portion and operatively coupled to the moveable component to produce axial movement of the moveable component relative to the handle portion upon rotation of the rotatable component; a motor disposed in the handle portion and operatively coupled to the rotatable component to produce rotation of the rotatable component and corresponding axial movement of the moveable component; and a pull cord configured to produce rotation of the rotatable component and corresponding axial movement of the moveable component when a manual pulling force is applied to the pull cord to pull the pull cord relative to the rotatable component.
A method of manufacturing a thin polarizer, the method comprising: forming a laminate by attaching a non-stretched polyvinyl alcohol-based film to at least one surface of a non-stretched high-density polyethylene film; stretching the laminate, and separating the stretched polyvinyl alcohol-based film from the stretched high-density polyethylene film, wherein a thickness of the non-stretched polyvinyl alcohol-based film is from 5 μm to 60 μm, and a thickness of the polyvinyl alcohol-based film after stretching is 10 μm or less, wherein a thickness of the non-stretched high-density polyethylene film is from 20 μm to 100 μm, and wherein the high-density polyethylene film has a specific gravity of 0.93 or greater compared to 4°C water (having a density of 0.999973 g/cm 3). forming a laminate by attaching a non-stretched polyvinyl alcohol-based film to at least one surface of a non-stretched high-density polyethylene film; stretching the laminate, and separating the stretched polyvinyl alcohol-based film from the stretched high-density polyethylene film, wherein a thickness of the non-stretched polyvinyl alcohol-based film is from 5 μm to 60 μm, and a thickness of the polyvinyl alcohol-based film after stretching is 10 μm or less, wherein a thickness of the non-stretched high-density polyethylene film is from 20 μm to 100 μm, and wherein the high-density polyethylene film has a specific gravity of 0.93 or greater compared to 4°C water (having a density of 0.999973 g/cm 3).