mhurhangee/ep-ind-claims huggingface dataset:
Method for generating a failsafe time function having: a standard timer, which is formed within a hardware, based on a first quartz, in particular a system quartz; and having an intrasystem real-time clock, based on an independent second quartz, wherein the method comprises the following steps: Generating a periodic interrupt signal by means of the intrasystem real-time clock and forwarding the periodic interrupt signal to a CPU, Access a table entry in an intrasystem table with reference to a routine upon receipt of the periodic interrupt signal by means of the CPU, Forming a counter by means of the routine and suspending the routine in the intrasystem table using assembler routines and comparing the thus formed counter with the standard timer. Generating a periodic interrupt signal by means of the intrasystem real-time clock and forwarding the periodic interrupt signal to a CPU, Access a table entry in an intrasystem table with reference to a routine upon receipt of the periodic interrupt signal by means of the CPU, Forming a counter by means of the routine and suspending the routine in the intrasystem table using assembler routines and comparing the thus formed counter with the standard timer.
Apparatus for transporting a media item, the apparatus comprising: a guide (326 or 327) defining (i) a guide surface for guiding a media item and (ii) an elongate slit (340 or 370); and a belt extending along the elongate slit (340 or 370) and comprising (i) an outer belt portion that projects outwardly from the elongate slit (340 or 370) beyond the guide (326 or 327) and (ii) an inner belt portion that undercuts a region of the guide (326 or 327), characterised in that: the belt comprises a pair of inner belt portions which undercut a region of the guide (326, 327) by extending laterally beyond the elongate slit (340 or 370), each of the inner belt portions on a respective side of the elongate slit (340, 370), each inner belt portion being disposed on an opposite side of the outer belt portion, a cross-section of the belt thereby appearing like an inverted "T". a guide (326 or 327) defining (i) a guide surface for guiding a media item and (ii) an elongate slit (340 or 370); and a belt extending along the elongate slit (340 or 370) and comprising (i) an outer belt portion that projects outwardly from the elongate slit (340 or 370) beyond the guide (326 or 327) and (ii) an inner belt portion that undercuts a region of the guide (326 or 327),
System for representing vibrations for a vehicle, comprising a vehicle seat with an upper part and a lower part, which are mounted movably relative to each other by means of a vibration device, wherein at least one first sensor, which is adapted to detect at least one first characteristic (x1,..., x6) of a first acceleration of the upper part relative to the lower part, is arranged on the upper part, and wherein at least one second sensor, which is adapted to detect at least one second parameter (y1,..., y6) of a second acceleration of the lower part relative to a substrate of the vehicle, is arranged on the lower part, characterized by a display device having a first section and a second section, each exhibiting a complete division into at least two, preferably three segments (3a, 3b, 3c; 4a, 4b, 4c), wherein the size ratios of the at least two segments (3a, 3b, 3c; 4a, 4b, 4c) to one another can be updated depending on a current value of the at least one first characteristic (x1,..., x6) or the at least one second characteristic (y1,..., y6).
A method for manufacturing a security element for securing value documents, comprising a) the supplying of a carrier having an emboss-lacquer layer which has a first relief structure forming a diffractive structure and a second relief structure forming a micromirror arrangement; b) the printing of the first relief structure forming a diffractive structure with a printing ink which is based on platelet-shaped metal pigments which are constituted such that they align themselves spatially along the relief structure of the emboss-lacquer layer and hereby form a reflective layer; c) the imprinting of a soluble washing ink in such a manner that the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement form recesses in the applied washing ink; d) the applying over the full area of a colored thin-film element followed by the washing off of the washing ink together with the region of the colored thin-film element generated above the washing ink, so that the colored thin-film element in the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement remains behind in a form spatially aligned along the respective relief structure; e) the applying of an adhesive layer, which is suitable for the bonding of the security element with an object of value, onto the layer buildup obtained by the steps a) to d), where applicable over one or more intermediate layers. a) the supplying of a carrier having an emboss-lacquer layer which has a first relief structure forming a diffractive structure and a second relief structure forming a micromirror arrangement; b) the printing of the first relief structure forming a diffractive structure with a printing ink which is based on platelet-shaped metal pigments which are constituted such that they align themselves spatially along the relief structure of the emboss-lacquer layer and hereby form a reflective layer; c) the imprinting of a soluble washing ink in such a manner that the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement form recesses in the applied washing ink; d) the applying over the full area of a colored thin-film element followed by the washing off of the washing ink together with the region of the colored thin-film element generated above the washing ink, so that the colored thin-film element in the regions of the first relief structure forming a diffractive structure and the second relief structure forming a micromirror arrangement remains behind in a form spatially aligned along the respective relief structure; e) the applying of an adhesive layer, which is suitable for the bonding of the security element with an object of value, onto the layer buildup obtained by the steps a) to d), where applicable over one or more intermediate layers.
A heatsink module for an inverter I, wherein the module is configured to dissipate heat generated from a main body of the inverter, wherein the heatsink module comprises: a housing having: a bottom face; both spaced side walls vertically extending from both sides of the bottom face respectively; and both flanges horizontally and inwardly extending from tops of both side walls respectively; and a heat-dissipation plate including: a base fixed to the both flanges; and a plurality of heat-dissipation fins extending downward from a bottom of the base; and wherein the heatsink module is characterized by: a supporter interposed between the bottom face of the housing and the heat-dissipation fins, wherein the supporter has slots defined therein for accommodating at least portions of the heat-dissipation fins respectively, wherein a fixed rail is formed on the bottom face of the housing, wherein the fixed rail is engaged with the supporter to restrict a movement of the supporter, and wherein a rail groove is defined in a bottom of the supporter, wherein the rail groove has a shape corresponding to a shape of the fixed rail such that the fixed rail is press-fitted into the rail groove. a housing having: a bottom face; both spaced side walls vertically extending from both sides of the bottom face respectively; and both flanges horizontally and inwardly extending from tops of both side walls respectively; and a bottom face; both spaced side walls vertically extending from both sides of the bottom face respectively; and both flanges horizontally and inwardly extending from tops of both side walls respectively; and a heat-dissipation plate including: a base fixed to the both flanges; and a plurality of heat-dissipation fins extending downward from a bottom of the base; and a base fixed to the both flanges; and a plurality of heat-dissipation fins extending downward from a bottom of the base; and wherein the heatsink module is characterized by: a supporter interposed between the bottom face of the housing and the heat-dissipation fins, wherein the supporter has slots defined therein for accommodating at least portions of the heat-dissipation fins respectively, wherein a fixed rail is formed on the bottom face of the housing, wherein the fixed rail is engaged with the supporter to restrict a movement of the supporter, and wherein a rail groove is defined in a bottom of the supporter, wherein the rail groove has a shape corresponding to a shape of the fixed rail such that the fixed rail is press-fitted into the rail groove. a supporter interposed between the bottom face of the housing and the heat-dissipation fins, wherein the supporter has slots defined therein for accommodating at least portions of the heat-dissipation fins respectively, wherein a fixed rail is formed on the bottom face of the housing, wherein the fixed rail is engaged with the supporter to restrict a movement of the supporter, and wherein a rail groove is defined in a bottom of the supporter, wherein the rail groove has a shape corresponding to a shape of the fixed rail such that the fixed rail is press-fitted into the rail groove.
A process for the production of a cyclohexanedicarboxylic acid or mono- or diester thereof, comprising the following sequences of the steps to: reaction of a butadiene-maleic anhydride mixture to give cyclohexenedicarboxylic anhydride in a condensed phase; formation of ester from a cyclohexenedicarboxylic anhydride; hydrogenation of the cyclohexene derivative from step to get the corresponding derivative of cyclohexane; or reaction of a butadiene-maleic-anhydride mixture to give cyclohexenedicarboxylic anhydride in a condensed phase; hydrogenation of the cyclohexenedicarboxylic anhydride to give cyclohexanedicarboxylic anhydride; formation of ester from the cyclohexanedicarboxylic anhydride, wherein the butadiene-maleic-anhydride mixture for the reaction of step is obtained via a process comprising the oxidation of streams comprising n-butene or butadiene or a mixture thereof or via a process comprising the oxidation of n-butene to give butadiene or via a process comprising the oxidation of n-butene to give a butadiene-maleic-anhydride mixture. reaction of a butadiene-maleic anhydride mixture to give cyclohexenedicarboxylic anhydride in a condensed phase; formation of ester from a cyclohexenedicarboxylic anhydride; hydrogenation of the cyclohexene derivative from step to get the corresponding derivative of cyclohexane; reaction of a butadiene-maleic-anhydride mixture to give cyclohexenedicarboxylic anhydride in a condensed phase; hydrogenation of the cyclohexenedicarboxylic anhydride to give cyclohexanedicarboxylic anhydride; formation of ester from the cyclohexanedicarboxylic anhydride,
A thrombectomy device, comprising: an elongate delivery member; a first expandable member attached to the elongate delivery member at a distal end of the elongate delivery member, and configured to capture a thrombus, the first expandable member having an expanded configuration and a collapsed configuration, the first expandable member having a maximum transverse outer dimension that is larger in the expanded configuration than in the collapsed configuration, and wherein the first expandable member comprises a plurality of cells and, in the expanded configuration, is generally tubular and has an open proximal end and an open distal end; and a second expandable member slidably attached to the elongate delivery member at a location proximal to the first expandable member, and comprising a hub slidably surrounding the elongate delivery member, an expandable frame extending from the hub, and a membrane attached to the expandable frame, the hub having a static transverse inner dimension that is smaller than the maximum transverse outer dimension of the first expandable member in the collapsed configuration, the expandable frame having an expanded frame configuration and a collapsed frame configuration, the expandable frame having a maximum transverse outer frame dimension that is larger in the expanded frame configuration than in the collapsed frame configuration, the membrane extending from the hub to an outermost circumferential perimeter of the expandable frame in the expanded frame configuration. an elongate delivery member; a first expandable member attached to the elongate delivery member at a distal end of the elongate delivery member, and configured to capture a thrombus, the first expandable member having an expanded configuration and a collapsed configuration, the first expandable member having a maximum transverse outer dimension that is larger in the expanded configuration than in the collapsed configuration, and wherein the first expandable member comprises a plurality of cells and, in the expanded configuration, is generally tubular and has an open proximal end and an open distal end; and a second expandable member slidably attached to the elongate delivery member at a location proximal to the first expandable member, and comprising a hub slidably surrounding the elongate delivery member, an expandable frame extending from the hub, and a membrane attached to the expandable frame, the hub having a static transverse inner dimension that is smaller than the maximum transverse outer dimension of the first expandable member in the collapsed configuration, the expandable frame having an expanded frame configuration and a collapsed frame configuration, the expandable frame having a maximum transverse outer frame dimension that is larger in the expanded frame configuration than in the collapsed frame configuration, the membrane extending from the hub to an outermost circumferential perimeter of the expandable frame in the expanded frame configuration.
Transport device for transporting products, with at least one pair of movable slide carriages (6, 8) which comprise a first slide carriage and a second slide carriage for moving at least one product, a peripherally arranged track rail for guiding the at least one pair of slide carriages (6, 8) in succession in a variable conveying direction, a linear motor drive device for driving the at least one pair of slide carriages (6, 8) wherein at least the first slide carriage has at least one permanent magnet which is in active connection with the linear motor drive device, wherein a holding element (16, 18) is provided on each of the first and the second slide carriages and the holding elements (16, 18) of the first and second slide carriage form between them a product receiving room and hold the at least one product secure between them there, characterised in that the holding elements (16, 18) on the first and second slide carriages are each mounted to rotate about an axis of rotation (20, 22; 50, 52) which extends substantially perpendicular to the variable conveying direction, and at least one connecting element (24, 54) is provided for connecting the holding elements (16, 18) of the first and second slide carriage such that a relative orientation of the holding elements (16, 18) to each other is fixed.
Training method for an adaptive evaluation algorithm which can be carried out using a hyperspectral measuring device, in particular for an artificial neural network, for determining substance concentrations in at least one plant based on hyperspectral image data of the at least one plant which are generated by a camera of the measuring device, wherein parameters of the adaptive evaluation algorithm are calibrated based on a plurality of training cases, wherein each of said training cases is given by an input vector, which contains image data of a hyperspectral image of a test plant belonging to the training case, and an output vector, which is given by substance concentrations within said test plant belonging to the training case, said substance concentrations being determined by means of a chemical analysis, characterized in that each one of the training cases is generated by first bringing the test plant belonging to the training case into a predetermined physiological state and then generating a hyperspectral image of the test plant by means of the camera of the measuring device while electromagnetic radiation impinges on the test plant and reflected or scattered electromagnetic radiation comes from the test plant, wherein a chemical analysis is carried out in order to measure the substance concentrations in the test plant, wherein image data of the hyperspectral image of the test plant are transmitted in the input vector of the training case and the substance concentrations of the at least one test plant are transmitted in the output vector of the training case, wherein the substance concentrations are substance concentrations of nutrients, wherein the nutrients interact with the electromagnetic radiation impinging on the test plant and, as a result of this interaction, influence the electromagnetic radiation coming from the test plant, wherein the substance concentration of at least one of said nutrients is too low to enable any measurement or detection of the interaction of said nutrient with the electromagnetic radiation impinging on the test plant by means of the camera.
A chlorine-dioxide-generating composition comprising: (i) an alkali metal chlorite salt in an amount in a range of 1 to 80 weight percent; (ii) a solid acid source in an amount in a range of 2 to 80 weight percent; (iii) hydrophilic cellulose in an amount in a range of 7 to 50 weight percent; and (iv) a super absorbent compound in an amount of 8 to 50 weight percent. (i) an alkali metal chlorite salt in an amount in a range of 1 to 80 weight percent; (ii) a solid acid source in an amount in a range of 2 to 80 weight percent; (iii) hydrophilic cellulose in an amount in a range of 7 to 50 weight percent; and (iv) a super absorbent compound in an amount of 8 to 50 weight percent.
A motor vehicle electrical system - with a first vehicle electrical system branch which contains a first electrical consumer and a voltage source connected in parallel thereto, - with a second vehicle electrical system branch which contains a second consumer, - with a direct voltage converter (DC/DC), by which the first vehicle electrical system branch can be coupled with the second vehicle electrical system branch, and - with a first switching device connected in parallel to the direct voltage converter (DC/DC), through which device in the closed switching state the direct voltage converter (DC/DC) is bridged with respect to the second consumer, wherein the second vehicle electrical system branch contains a capacitor, characterised in that the capacitor can be connected in parallel to the second consumer by a second switching device or can be decoupled from the second consumer such that the charge state of the capacitor can be specifically set or diagnosed. - with a first vehicle electrical system branch which contains a first electrical consumer and a voltage source connected in parallel thereto, - with a second vehicle electrical system branch which contains a second consumer, - with a direct voltage converter (DC/DC), by which the first vehicle electrical system branch can be coupled with the second vehicle electrical system branch, and - with a first switching device connected in parallel to the direct voltage converter (DC/DC), through which device in the closed switching state the direct voltage converter (DC/DC) is bridged with respect to the second consumer,
An LED filament lamp using infrared radiation heat dissipation, comprising: a bulb shell; a core base with an exhaust pipe; a driver; a lamp cap; at least one LED lighting bar with a 2π light-emitting LED chip; the bulb shell and the core base are in vacuum sealing to form a vacuum sealed cavity and the vacuum sealed cavity is filled with high heat conductivity gas; the LED lighting bar is located in the vacuum sealed cavity; the driver and the lamp cap are connected in series through an outer electrode leading-out wire; characterized in that: the bulb shell has an infrared transmittance larger than 0.8; one side of the LED lighting bar is provided with a light-emitting layer of the LED chip, and the other side is provided with an infrared radiation converting layer; and both ends of the LED lighting bar are fixed to the core base through a metal wire respectively, and are connected to the driver which is fixed below the core base. a bulb shell; a core base with an exhaust pipe; a driver; a lamp cap; at least one LED lighting bar with a 2π light-emitting LED chip; the bulb shell and the core base are in vacuum sealing to form a vacuum sealed cavity and the vacuum sealed cavity is filled with high heat conductivity gas; the LED lighting bar is located in the vacuum sealed cavity; the driver and the lamp cap are connected in series through an outer electrode leading-out wire; characterized in that: the bulb shell has an infrared transmittance larger than 0.8; one side of the LED lighting bar is provided with a light-emitting layer of the LED chip, and the other side is provided with an infrared radiation converting layer; and both ends of the LED lighting bar are fixed to the core base through a metal wire respectively, and are connected to the driver which is fixed below the core base. the bulb shell has an infrared transmittance larger than 0.8; one side of the LED lighting bar is provided with a light-emitting layer of the LED chip, and the other side is provided with an infrared radiation converting layer; and both ends of the LED lighting bar are fixed to the core base through a metal wire respectively, and are connected to the driver which is fixed below the core base.
A method for bounding of a first contact surface of a first substrate to a second contact surface of a second substrate, the second substrate having at least one reaction layer, and wherein a growth layer is provided between the second contact surface and the reaction layer, with the following sequence: - forming a reservoir adapted for retention of a first educt, in a reservoir formation layer on the first contact surface, - at least partial filling of the reservoir with the first educt or a first group of educts, - thinning of the second substrate, wherein the growth layer is at least partially removed by said thinning, - the first contact surface making contact with the second contact surface for formation of a prebond connection and - forming a permanent bond between the first and second contact surface (3, 4), at least partially strengthened by the reaction of the first educt with the second educt contained in the reaction layer of the second substrate, wherein an average distance between the reservoir and the reaction layer immediately before formation of the permanent bond is between 0.1 nm and 15 nm, which is produced by said thinning. - forming a reservoir adapted for retention of a first educt, in a reservoir formation layer on the first contact surface, - at least partial filling of the reservoir with the first educt or a first group of educts, - thinning of the second substrate, wherein the growth layer is at least partially removed by said thinning, - the first contact surface making contact with the second contact surface for formation of a prebond connection and - forming a permanent bond between the first and second contact surface (3, 4), at least partially strengthened by the reaction of the first educt with the second educt contained in the reaction layer of the second substrate, wherein an average distance between the reservoir and the reaction layer immediately before formation of the permanent bond is between 0.1 nm and 15 nm, which is produced by said thinning.