mhurhangee/ep-ind-claims huggingface dataset:
A first RF connector element (100, 400, 500) for mating with a second RF connector element, the first RF connector element (100, 400, 500) comprising: a first terminal (104, 404, 504), having a first contact region (110, 410, 510) for electrically connecting a first mating terminal of the second RF connector element; a second terminal (106, 406, 506) having a second contact region for electrically connecting a second mating terminal of the second RF connector element; a first electrical insulator element (102, 402, 502) for electrically insulating the first terminal (104, 404, 504) and the second terminal (106, 406, 506); wherein the first electrical insulator element (102, 402, 502) comprises a first contact support part (114, 414, 514), which is integrally formed of a first dielectric material, having a first relative dielectric constant, and a first compensation part (116, 416, 516), which is integrally formed with the first contact support part (114, 414, 514) and of a second dielectric material, having a second relative dielectric constant, which is larger than the first relative dielectric constant; and wherein the first compensation part (116, 416, 516) is arranged at a front end region of the first electrical insulator element (102, 402, 502) and at least partly encompasses the first contact region (110, 510) of the first terminal (102, 402, 502). a first terminal (104, 404, 504), having a first contact region (110, 410, 510) for electrically connecting a first mating terminal of the second RF connector element; a second terminal (106, 406, 506) having a second contact region for electrically connecting a second mating terminal of the second RF connector element; a first electrical insulator element (102, 402, 502) for electrically insulating the first terminal (104, 404, 504) and the second terminal (106, 406, 506); wherein the first electrical insulator element (102, 402, 502) comprises a first contact support part (114, 414, 514), which is integrally formed of a first dielectric material, having a first relative dielectric constant, and a first compensation part (116, 416, 516), which is integrally formed with the first contact support part (114, 414, 514) and of a second dielectric material, having a second relative dielectric constant, which is larger than the first relative dielectric constant; and wherein the first compensation part (116, 416, 516) is arranged at a front end region of the first electrical insulator element (102, 402, 502) and at least partly encompasses the first contact region (110, 510) of the first terminal (102, 402, 502).
An integral and removable sootblower packing unit, comprising: a cylindrical housing comprising a cylindrical opening shaped to receive a sootblower steam tube therethrough and configured for location in a lance spindle, said cylindrical housing enclosing a space between an inner dimension of the cylindrical housing and the sootblower steam tube in which is disposed a packing material, said packing material comprising a number of packing rings, said packing material forming a steam seal between the sootblower steam tube and lance spindle when the packing unit is installed in an operative position in association with the steam tube and the spindle and the packing material is loaded by applying compression to the packing material; characterized in that the packing material is a sacrificial packing material and the packing rings are sacrificial packing rings, and wherein the cylindrical housing and packing material form an integral unit installable to and removable from the steam tube and spindle with the packing material held intact within the cylindrical housing. a cylindrical housing comprising a cylindrical opening shaped to receive a sootblower steam tube therethrough and configured for location in a lance spindle, said cylindrical housing enclosing a space between an inner dimension of the cylindrical housing and the sootblower steam tube in which is disposed a packing material, said packing material comprising a number of packing rings, said packing material forming a steam seal between the sootblower steam tube and lance spindle when the packing unit is installed in an operative position in association with the steam tube and the spindle and the packing material is loaded by applying compression to the packing material; characterized in that the packing material is a sacrificial packing material and the packing rings are sacrificial packing rings, and wherein the cylindrical housing and packing material form an integral unit installable to and removable from the steam tube and spindle with the packing material held intact within the cylindrical housing.
A dispenser mounting system comprising: a container; and a bracket including a first arm and a second arm, the container releasably and rotatably coupled to the bracket via mating engagement between the container and the first and second arms, the first and second arms defining an axis of rotation about which the container is rotatable, wherein the bracket further includes a back support exerting a reactionary force against the container in response to a compressive force applied to a front of the container to dispense material from the container, characterized in that the back support is resilient and returns to its original shape after removal of the compressive force applied to the front of the container. a container; and a bracket including a first arm and a second arm, the container releasably and rotatably coupled to the bracket via mating engagement between the container and the first and second arms, the first and second arms defining an axis of rotation about which the container is rotatable, wherein the bracket further includes a back support exerting a reactionary force against the container in response to a compressive force applied to a front of the container to dispense material from the container, characterized in that the back support is resilient and returns to its original shape after removal of the compressive force applied to the front of the container.
A thermochromic color-memory toner comprising: at least a microcapsule pigment encapsulating a thermochromic color-memory composition comprising an electron donating coloring organic compound, an electron accepting compound, and a reaction medium controlling color reaction between the above and; and a binder resin, wherein the microcapsule pigment shows a large hysteresis characteristic with respect to color density-temperature curve and shows alternativeness between a colored state and a decolored state, the hysteresis characteristic is that, in a temperature-rise process where the pigment is in the colored state, decoloration starts when the temperature reaches temperature t 3, the pigment completely reaches the decolored state at temperature t 4 which is higher than temperature t 3 and the completely decolored state is maintained in a temperature region of equal to or higher than the temperature t 4, and, in a temperature-drop process where the pigment is in the decolored state, coloration starts when the temperature reaches temperature t 2 which is lower than temperature t 3 and the pigment completely reaches the colored state at temperature t 1 which is lower than temperature t 2 and the completely colored state is maintained in a temperature region of equal to or lower than the temperature t 1, with either the colored state or the decolored state being selectively observed visually in a temperature region between temperature t 2 and temperature t 3, the temperature t 1 is in a range of from -50 to 0°C and the temperature t 4 is in a range of from 50 to 150°C; characterized in that the temperature t 4 of the microcapsule pigment is higher temperature than a softening point of the toner, which is measured according to the description.
Motor vehicle control module comprising a housing, wherein the housing has a plurality of housing sections, wherein a base plate and a plug frame are each designed separately and therefore each form a housing section, or the base plate and the plug frame are designed in a combined manner and therefore form a housing section together, wherein the base plate has a printed circuit board arranged on it, which printed circuit board is configured in such a way as to form an electronic unit, in particular a motor vehicle control electronics system, and wherein the plug frame has at least one opening with collars, wherein the housing has at least one electrical connection by means of a connecting element for establishing an electrical connection between a plug and the electronic unit, in particular a motor vehicle control electronics system, wherein the connecting element has a flexible film which has one or more conductor tracks, wherein the connecting element has one or more bonding areas which are arranged on the flexible film and are configured in such a way as to establish at least one electrical connection between the flexible film and the electronic unit, and wherein the connecting element has one or more contact elements, wherein the contact element or the contact elements are electrically connected to the bonding area via at least one conductor track, wherein one or more contact elements are fixed into an opening of the plug frame by means of a carrier element, characterized in that an electrical connection between the conductor track or the conductor tracks of the flexible film and the electronic unit which is located on the printed circuit board is established by means of the at least one bonding area by wire bonding, wherein the flexible film has a fastening means by means of which mechanical fastening and/or cohesive fastening, in particular adhesive bonding, of the bonding area or the bonding areas on the printed circuit board is established.
A method of fabricating a micro-machined device on a substrate, the micro-machined device including at least one first component having a first physical dimension and a corresponding first longitudinal axis, the alignment of which on the substrate is critical to the optimal performance of the device, and at least one second component having a second physical dimension and a corresponding second longitudinal axis, the alignment of which on the substrate is not critical to the optimal performance of the device, the method including the steps of: depositing at least one layer onto a surface of the substrate; masking the deposited layer using a predetermined mask pattern, the mask pattern having associated therewith first and second mutually orthogonal axes parallel to vertical and horizontal lines respectively of a rectilinear grid used to form the mask pattern, the mask pattern being configured to define respective regions on the deposited layer corresponding to the first and second components of the device, the respective region corresponding to the at least one first component having the first longitudinal axis oriented parallel to the first or second axis of the mask pattern, and the respective region corresponding to the at least one second component having the second longitudinal axis oriented off the first and second axes of the mask pattern such that an outline of the at least one second component conforms to a stepped approximation on the rectilinear grid; and etching the masked layer to transfer the mask pattern to the layer. depositing at least one layer onto a surface of the substrate; masking the deposited layer using a predetermined mask pattern, the mask pattern having associated therewith first and second mutually orthogonal axes parallel to vertical and horizontal lines respectively of a rectilinear grid used to form the mask pattern, the mask pattern being configured to define respective regions on the deposited layer corresponding to the first and second components of the device, the respective region corresponding to the at least one first component having the first longitudinal axis oriented parallel to the first or second axis of the mask pattern, and the respective region corresponding to the at least one second component having the second longitudinal axis oriented off the first and second axes of the mask pattern such that an outline of the at least one second component conforms to a stepped approximation on the rectilinear grid; and etching the masked layer to transfer the mask pattern to the layer.
An open emission analysis method comprising: taking in exhaust gas discharged from an exhaust port together with ambient outside air using an exhaust gas sampling unit; and analyzing the collected exhaust gas, the method being characterised in that it further comprises covering an outside air inflow gap by an air-permeable filter located between a sampling port of the exhaust gas sampling unit and a periphery of the exhaust port; and suppressing inflow of the outside air by the filter in order to prevent leakage of the exhaust gas from the sampling port. taking in exhaust gas discharged from an exhaust port together with ambient outside air using an exhaust gas sampling unit; and analyzing the collected exhaust gas, the method being characterised in that it further comprises covering an outside air inflow gap by an air-permeable filter located between a sampling port of the exhaust gas sampling unit and a periphery of the exhaust port; and suppressing inflow of the outside air by the filter in order to prevent leakage of the exhaust gas from the sampling port.
A device for preparation of immobilized proteins, enzymes or cells, characterized in that the device comprises: i) a conveyor belt that transports a carrier for immobilizing proteins, enzymes or cells; ii) two or more spraying-kneading components that are arranged in sequence along a transport path of the conveyor belt; each of the spraying-kneading components includes the following components in sequence: a spraying component that sprays a pre-prepared liquid for the immobilization of the proteins, enzymes or cells on the surface of the carrier; a kneading component that distributes the pre-prepared liquid evenly on the surface of the carrier; iii) a squeezing component that removes the excess liquid remaining on the surface of the carrier after the carrier passes through the spraying-kneading components; wherein the kneading component of each of the spraying-kneading components includes one or more kneading rolls that are provided above the conveyor belt, the one or more kneading rolls are arranged along the transport path of the conveyor belt continuously and in sequence, and each of the kneading rolls rolls over the surface of the carrier when the carrier passes through a gap between the kneading roll and the conveyor belt; the squeezing component includes one or more upper squeezing rolls that are provided above the conveyor belt, the one or more upper squeezing rolls are arranged along the transport path of the conveyor belt continuously and in sequence, and each of the upper squeezing rolls rolls over the surface of the carrier to remove the excess liquid when the carrier passes through a gap between the upper squeezing roll and the conveyor belt. i) a conveyor belt that transports a carrier for immobilizing proteins, enzymes or cells; ii) two or more spraying-kneading components that are arranged in sequence along a transport path of the conveyor belt; each of the spraying-kneading components includes the following components in sequence: a spraying component that sprays a pre-prepared liquid for the immobilization of the proteins, enzymes or cells on the surface of the carrier; a kneading component that distributes the pre-prepared liquid evenly on the surface of the carrier; iii) a squeezing component that removes the excess liquid remaining on the surface of the carrier after the carrier passes through the spraying-kneading components;
A compound of Formula HS-L-Y-O-Q-O-Y-L-SH wherein each Y is independently a single bond or a carbonyl group; each L is independently an alkylene or heteroalkylene; and Q is a divalent group of Formula (I-1), Formula, or Formula.
η 5:η 1 -Cyclopentadienylidene-phosphorane-constrained geometry complexes of the rare earth metals (η 5:η 1 -CpPC-CGC) of general formula 1 wherein SE = Sc, Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb or Lu; X = independently of one another, a monoanionic diorganoamido-, bistrimethylsilylamido-, halido-, alkyl-, aryl-, alkoxo-, aryloxo- or alkylaluminate (AlR 4 -) substituent; L = a neutral ligand and/or solvent molecule; R 1, R 4 = independently of one another, H or methyl; R 2, R 3 = independently of one another, H or methyl or tertiary butyl or together a substituted cycloalkyl radical; R 5, R 6 = methyl, n-butyl, tertiary butyl or phenyl; R 7, R 8 = independently of one another, H, trimethylsilyl, alkyl having up to 1-10 carbon atoms or mono- or polycyclic aryl having 6 to 20 carbon atoms, and m is 0, 1, 2 or 3. SE = Sc, Y, La, Ce, Pr, Nd, Pm, Sm, Eu, Gd, Tb, Dy, Ho, Er, Tm, Yb or Lu; X = independently of one another, a monoanionic diorganoamido-, bistrimethylsilylamido-, halido-, alkyl-, aryl-, alkoxo-, aryloxo- or alkylaluminate (AlR 4 -) substituent; L = a neutral ligand and/or solvent molecule; R 1, R 4 = independently of one another, H or methyl; R 2, R 3 = independently of one another, H or methyl or tertiary butyl or together a substituted cycloalkyl radical; R 5, R 6 = methyl, n-butyl, tertiary butyl or phenyl; R 7, R 8 = independently of one another, H, trimethylsilyl, alkyl having up to 1-10 carbon atoms or mono- or polycyclic aryl having 6 to 20 carbon atoms, and m is 0, 1, 2 or 3.
A light emitting device (5, 5') comprising: a first common electrode (11; 21), a structured conducting layer (12; 22), forming a set of electrode pads (14; 24a, 24b) electrically isolated from each other, and an electrode mesh surrounding said electrode pads, a dielectric layer (13; 23), interposed between said first common electrode layer (11; 21) and said structured conducting layer (12; 22), a plurality of light emitting elements (16; 20a, 20b), each light emitting element being electronically connected between one of said electrode pads (14; 24a, 24b) and said electrode mesh, so as to be connected in series with a capacitor (18; 31) comprising: said one of said electrode pads (14; 24a, 24b), said dielectric layer (13; 23), and said first common electrode (11; 21). a first common electrode (11; 21), a structured conducting layer (12; 22), forming a set of electrode pads (14; 24a, 24b) electrically isolated from each other, and an electrode mesh surrounding said electrode pads, a dielectric layer (13; 23), interposed between said first common electrode layer (11; 21) and said structured conducting layer (12; 22), a plurality of light emitting elements (16; 20a, 20b), each light emitting element being electronically connected between one of said electrode pads (14; 24a, 24b) and said electrode mesh, so as to be connected in series with a capacitor (18; 31) comprising: said one of said electrode pads (14; 24a, 24b), said dielectric layer (13; 23), and said first common electrode (11; 21). said one of said electrode pads (14; 24a, 24b), said dielectric layer (13; 23), and said first common electrode (11; 21).
A covalent polymer network with shape memory properties having a switching temperature within the range of 20 to 150°C and comprising at least one cross-linked macro-polyacrylate, the macro-polyacrylate comprising at least two acrylate groups, wherein said marro-polyacrylate includes both ester structural units and urethane structural units, wherein said macro-polyacrylate has the general formula: wherein R 1 is a substituent of a macro-diol having an average molecular weight (M n) from 1,000 to 50,000 g/mol, R 2 is a substituent of a low-molecular-weight diisocyanate, R 3 is at least one of hydrogen and a branched or unbranched alkyl group having from 1 to 4 carbon atoms, R 4 is at least one of a branched or unbranched alkylene group having from 2 to 10 carbon atoms and m is 0 or an integer in the range from 1 to 10, or wherein said macro-polyacrylate has the general formula: wherein R 1 is a substituent of a macro-polyol having an average molecular weight (M n) from 1,000 to 50,000 g/mol, R 3 is at least one of a hydrogen and a branched or unbranched alkyl group having from 1 to 4 carbon atoms, R 5 is at least one of a branched or unbranched alkylene group having from 2 to 10 carbon atoms and n is an integer of 2 or greater.
Lifting apparatus of an industrial truck having a load-bearing means arranged on a lifting frame such that it can be raised and lowered, wherein a hydraulic lifting cylinder device, which can be operated by means of an electrically operable control valve device, is provided for lifting and lowering the load-bearing means, wherein an electronic control device driving the control valve device is provided, wherein the electronic control device exhibits an automatic set-down operation in which, during a lowering process of the load-bearing means for setting down a load located on the load-bearing means on a set-down surface, wherein the control valve device is operated to a lowered position depending on the deflection of an operator control element to a lowering position, the load is lowered onto the set-down surface at the lowering speed prespecified by the deflection of the operator control element and, when furthermore the operator control element is deflected to the lowering position, the lowering process of the load-bearing means is ended by the electronic control device by way of driving the control valve device to a locked position in such a way that setting down of the load-bearing means on the set-down surface is prevented, wherein a pressure sensor device, which detects the pressure in a pressure medium line routed from the control valve device to the lifting cylinder device, is provided, wherein the pressure sensor device is connected to the electronic control device driving the control valve device, wherein the pressure (p) detected by the pressure sensor device is ascertained by the electronic control device in the automatic set-down operation during the lowering process of the load-bearing means and the lowering process of the load-bearing means is ended by way of driving the control valve device to the locked position when the pressure (p) detected by means of the pressure sensor device undershoots a prespecified pressure limit value, characterized in that the pressure limit value lies between an empty pressure, which arises when the load-bearing means is unladen, and a minimum pressure (pmin), which arises when the load-bearing means is laden with a minimum load.
A nonaqueous electrolytic solution of an electrolyte salt dissolved in a nonaqueous solvent, which comprises at least one alkynyl compound represented by the following general formula in an amount of from 0.01 to 10% by mass of the nonaqueous electrolytic solution: R 1 n -X 1 -R 2 wherein X 1 represents a group -S(=O) 2 -; R 1 represents an alkenyl group having from 2 to 8 carbon atoms; R 2 represents an alkynyloxy group having from 3 to 8 carbon atoms; and n is 0.
A compound represented by formula I or a pharmaceutically acceptable salt thereof, wherein, R 1, R 2, R 3, R 4 and R 5 are independently hydrogen, C 1 -C 6 alkyl, C 1 -C 6 alkoxy or C(=O)OR 8; wherein R 8 is C 1 -C 4 alkyl; R 6 is R 7 is -OH, -NH 2, -NHCH 3, -N(CH 3) 2 or C 1-4 alkoxy. wherein, R 1, R 2, R 3, R 4 and R 5 are independently hydrogen, C 1 -C 6 alkyl, C 1 -C 6 alkoxy or C(=O)OR 8; wherein R 8 is C 1 -C 4 alkyl; R 6 is R 7 is -OH, -NH 2, -NHCH 3, -N(CH 3) 2 or C 1-4 alkoxy.