mhurhangee/ep-ind-claims huggingface dataset:
A system that facilitates utilizing a human machine interface comprising: a human machine interface component, wherein the HMI component includes a device with pre-programmed primitives, the pre-programmed primitives are out-of-box generic functionalities respective to the device; and an interface component adapted to receive data from a user, the received data relating to a programming of the HMI component and of the device, and the received data comprising ladder logic, wherein the system is adapted to append the programming to the pre-programmed primitives, wherein the HMI component is communicatively coupled to the interface component, and wherein the HMI component refers to a computer-related entity, either hardware, a combination of hardware and software, software or software in execution. a human machine interface component, wherein the HMI component includes a device with pre-programmed primitives, the pre-programmed primitives are out-of-box generic functionalities respective to the device; and an interface component adapted to receive data from a user, the received data relating to a programming of the HMI component and of the device, and the received data comprising ladder logic, wherein the system is adapted to append the programming to the pre-programmed primitives, wherein the HMI component is communicatively coupled to the interface component, and wherein the HMI component refers to a computer-related entity, either hardware, a combination of hardware and software, software or software in execution.
A brake control device, comprising: a tube seat having at least one input port through which a fluid is input from a fluid source; and a regulating valve for regulating a flow rate or a pressure of the fluid input through the at least one input port to output a fluid for operating a brake device, characterized in that the tube seat is formed of a plurality of plate-shaped members (11-17, 20-24) metal-joined to each other and laminated, and a channel (A-W) connecting between the at least one input port and the regulating valve is formed by the plurality of plate-shaped members (11-17, 20-24). a tube seat having at least one input port through which a fluid is input from a fluid source; and a regulating valve for regulating a flow rate or a pressure of the fluid input through the at least one input port to output a fluid for operating a brake device, characterized in that the tube seat is formed of a plurality of plate-shaped members (11-17, 20-24) metal-joined to each other and laminated, and a channel (A-W) connecting between the at least one input port and the regulating valve is formed by the plurality of plate-shaped members (11-17, 20-24).
A method comprising: receiving, with a primary router, advertised routes from a multi-homed router via a Border Gateway Protocol, BGP, session, wherein the multi-homed router is connected to the primary router and a backup router; updating, in a control plane of the primary router, routing information in a routing table based on the received routes; installing, in a forwarding plane of the primary router, forwarding data structures for the received routes in forwarding tables based on the routing information; and deferring re-advertisement of the routes to BGP peer routers until the control plane receives an acknowledgement from the forwarding plane indicating that a last route received from the multi-homed router is installed in the forwarding tables of the forwarding plane. receiving, with a primary router, advertised routes from a multi-homed router via a Border Gateway Protocol, BGP, session, wherein the multi-homed router is connected to the primary router and a backup router; updating, in a control plane of the primary router, routing information in a routing table based on the received routes; installing, in a forwarding plane of the primary router, forwarding data structures for the received routes in forwarding tables based on the routing information; and deferring re-advertisement of the routes to BGP peer routers until the control plane receives an acknowledgement from the forwarding plane indicating that a last route received from the multi-homed router is installed in the forwarding tables of the forwarding plane.
A thick film paste composition comprising: (a) 35-55 wt% Ag; (b) 0.5-5 wt% Pb-free bismuth-based oxide; and (c) an organic medium; wherein said Ag and said bismuth-based oxide are dispersed in said organic medium and wherein said wt% are based on the total weight of said thick film paste composition, said bismuth-based oxide comprising 62-74 wt% Bi 2 O 3, 6-15 wt% ZnO, 5-17 wt% B 2 O 3, 0.1-8 wt% Al 2 O 3, 1.5-12 wt% SiO 2 and 0-1 wt% CaO, based on the total weight of said bismuth-based oxide. (a) 35-55 wt% Ag; (b) 0.5-5 wt% Pb-free bismuth-based oxide; and (c) an organic medium;
Fill-valve for filling a container with a filling product, with a product outlet opening for expelling a filling product into a container and with a valve cone which is sealingly receivable in a first valve seat for switching the filling product flow by moving the valve cone into the first valve seat in the direction of the filling product flow which is to be directed towards the product outlet opening, characterised by a second valve seat for the reception in a sealing manner of the valve cone for switching the filling product flow by moving the valve cone into the valve seat against the direction of the filling product flow, wherein no filling product can flow to the product outlet opening when the valve cone has been received sealingly in the second valve seat.
Method of manufacturing an electro-optic device comprising the following subsequent steps of a) providing a first, metal substrate having a thickness in the range of 50 to 500 μm, b) providing (FIG. 2B) the metal substrate with a transparent electrically conductive layer, c) applying a second substrate at a free surface of the transparent electrically conductive layer, d) selectively etching the metal substrate to form an etched metal structure, e) depositing a functional structure, subsequently including at least a functional layer having an electro-optic function and an electrode at a surface formed by the transparent conductive layer. a) providing a first, metal substrate having a thickness in the range of 50 to 500 μm, b) providing (FIG. 2B) the metal substrate with a transparent electrically conductive layer, c) applying a second substrate at a free surface of the transparent electrically conductive layer, d) selectively etching the metal substrate to form an etched metal structure, e) depositing a functional structure, subsequently including at least a functional layer having an electro-optic function and an electrode at a surface formed by the transparent conductive layer.
A wireless device configured to transmit a radiation signal, comprising: a circuit board (310, 450, 500, 600) including a metallic ground plane and at least one substrate layer; a monopole antenna (315, 330, 440, 525, 660) coupled to the circuit board (310, 450, 500, 600) and adapted to transmit radio frequency, RF, signals, wherein the monopole antenna (315, 330, 440, 525, 660) includes one or more loading structures configured to change a resonance of the monopole antenna (315, 330, 440, 525, 660); and two or more apertures (320, 325, 335, 340, 420-435, 505, 510, 605-620, 635-650) in the metallic ground plane, wherein at least one selectable radio frequency switch (515, 520, 630, 655) is positioned over each of the apertures (320, 325, 335, 340, 420-435, 505, 510, 605-620, 635-650), and wherein the two or more apertures (320, 325, 335, 340, 420-435, 505, 510, 605-620, 635-650) are selected to beam steer specific RF signals transmitted from the monopole antenna (315, 330, 440, 525, 660) via selection of the associated RF switches, wherein the two or more apertures extend around the monopole antenna and comprise an aperture (325, 340, 510, 605-620) located further from the monopole antenna (315, 330, 440, 525, 660) and configured to perform beam steering of a lower frequency RF signal and a further aperture (320, 335, 505, 635-650) located closer to the monopole antenna (315, 330, 440, 525, 660) and configured to perform beam steering of a higher frequency RF signal. a circuit board (310, 450, 500, 600) including a metallic ground plane and at least one substrate layer; a monopole antenna (315, 330, 440, 525, 660) coupled to the circuit board (310, 450, 500, 600) and adapted to transmit radio frequency, RF, signals, wherein the monopole antenna (315, 330, 440, 525, 660) includes one or more loading structures configured to change a resonance of the monopole antenna (315, 330, 440, 525, 660); and two or more apertures (320, 325, 335, 340, 420-435, 505, 510, 605-620, 635-650) in the metallic ground plane, wherein at least one selectable radio frequency switch (515, 520, 630, 655) is positioned over each of the apertures (320, 325, 335, 340, 420-435, 505, 510, 605-620, 635-650), and wherein the two or more apertures (320, 325, 335, 340, 420-435, 505, 510, 605-620, 635-650) are selected to beam steer specific RF signals transmitted from the monopole antenna (315, 330, 440, 525, 660) via selection of the associated RF switches, wherein the two or more apertures extend around the monopole antenna and comprise an aperture (325, 340, 510, 605-620) located further from the monopole antenna (315, 330, 440, 525, 660) and configured to perform beam steering of a lower frequency RF signal and a further aperture (320, 335, 505, 635-650) located closer to the monopole antenna (315, 330, 440, 525, 660) and configured to perform beam steering of a higher frequency RF signal.
An apparatus, comprising: a via wafer including a main portion and an elongate arm having a first portion extending away from the main portion of the via wafer and a second portion extending about the main portion of the via wafer and separate from the main portion of the via wafer by a gap; and a microelectromechanical layer including an oscillating portion, the microelectromechanical layer coupled to the main portion of the via wafer; an application specific integrated circuit, ASIC, having a first surface coupled to the elongate arm of the via wafer using a first electrical interconnect and a second surface opposite to the first surface, the second surface having a second electrical interconnect centrally located on the second surface to couple the ASIC to a substrate, wherein the elongate arm and the location of the second electrical interconnect are configured to protect the microelectromechanical layer from deformation or stress. a via wafer including a main portion and an elongate arm having a first portion extending away from the main portion of the via wafer and a second portion extending about the main portion of the via wafer and separate from the main portion of the via wafer by a gap; and a microelectromechanical layer including an oscillating portion, the microelectromechanical layer coupled to the main portion of the via wafer; an application specific integrated circuit, ASIC, having a first surface coupled to the elongate arm of the via wafer using a first electrical interconnect and a second surface opposite to the first surface, the second surface having a second electrical interconnect centrally located on the second surface to couple the ASIC to a substrate, wherein the elongate arm and the location of the second electrical interconnect are configured to protect the microelectromechanical layer from deformation or stress.
Key-bow cover having two cover elements (5, 6), which are connected to one another by first and second fastening means (10, 20) which project alternately through an opening of the key bow and engage one inside the other, and latch together, when the two cover elements (5, 6) are fitted together, wherein end portions (11, 21) of the fastening means (10, 20) of the cover elements (5, 6) engage in a respective depression (14, 24) of the other cover element (5, 6), wherein, on one side, at least one fastening means (10, 20) has a protrusion (12, 22) which projects transversely to the fitting-together direction and, when the two cover elements (5, 6) are fitted together, slides in an elastically yielding manner on the other fastening means (10, 20) in the transverse direction in relation to the fitting-together direction, in order then to penetrate into a recess (13, 23) of the other fastening means (10, 20), characterized in that, in the fitted-together state, the protrusion (12, 22) of at least one fastening means (10, 20) is positioned in the recess (13, 23) assigned to it, wherein the end portion (11, 21) of the fastening means (10, 20) has its side which is directed away from the protrusion butting against a retaining wall (19, 29).
Process for the production of aviation biokerosene, characterised in that it simultaneously combines three basic conditions: raw material selection, processing conditions, and control of specific properties of the product, comprising the following stages: a) production of an overspecified biodiesel charge, produced from raw material of renewable origin which may be a light vegetable oil rich in glycerides containing from six to fourteen carbon atoms in the chain of the fatty acids, selected from a group comprising, inter alia, oils of coconut, babassu, oil palm, ouricuri, or mixtures thereof in any proportion; b) feeding this biodiesel charge into a charging vessel of a vacuum fractionation unit; c) subjecting the aforementioned biodiesel charge to fractionation under vacuum from 1 mmHg to 100 mmHg such that the aviation biokerosene fraction is removed from the top of the distillation column under conditions such as to minimise degradation of the product; d) controlling the freezing point value of the product from the top of the distillation tower such that it be lower than -10°C, preferentially below -13°C. a) production of an overspecified biodiesel charge, produced from raw material of renewable origin which may be a light vegetable oil rich in glycerides containing from six to fourteen carbon atoms in the chain of the fatty acids, selected from a group comprising, inter alia, oils of coconut, babassu, oil palm, ouricuri, or mixtures thereof in any proportion; b) feeding this biodiesel charge into a charging vessel of a vacuum fractionation unit; c) subjecting the aforementioned biodiesel charge to fractionation under vacuum from 1 mmHg to 100 mmHg such that the aviation biokerosene fraction is removed from the top of the distillation column under conditions such as to minimise degradation of the product; d) controlling the freezing point value of the product from the top of the distillation tower such that it be lower than -10°C, preferentially below -13°C.
A method for the production of an erect object on the basis of photographic image data, comprising the following steps: a. provision of a database, to which the users can gain access via the Internet, b. transfer of photographic image data in digital form to the database by a user, c. identification of an image area in the photographic image data, which completely contains the image object to be represented by the erect object, d. production of a printed product on the basis of the image area, whereby at least the image object is printed directly on the glass substrate in a printing process, e. identification of an image object in the image area and f. identification of a contour of the identified image object, wherein the contour is identified before the printing process, and in the printing process only pixels lying inside the contour are printed and a strip lying inside the determined contour of the image object and surrounding the image object remains unprinted g. separating of the erect object from the printed product by means of contour cutting and/or a contour milling along the identified contour. a. provision of a database, to which the users can gain access via the Internet, b. transfer of photographic image data in digital form to the database by a user, c. identification of an image area in the photographic image data, which completely contains the image object to be represented by the erect object, d. production of a printed product on the basis of the image area, whereby at least the image object is printed directly on the glass substrate in a printing process, e. identification of an image object in the image area and f. identification of a contour of the identified image object, wherein the contour is identified before the printing process, and in the printing process only pixels lying inside the contour are printed and a strip lying inside the determined contour of the image object and surrounding the image object remains unprinted g. separating of the erect object from the printed product by means of contour cutting and/or a contour milling along the identified contour.
A method for decreasing the lag time in a fermentation of a culture medium to prepare a target substance, wherein the target substance is not yogurt and wherein the fermentation results in formation of acid or ethanol, which method comprises the steps of providing, to a suitable culture medium, a fermentation starter culture comprising a microorganism which liberates acid or ethanol, adding a potato protein protease inhibitor to the culture medium, culturing the microorganism, and obtaining the target substance.
An assisted propulsion system for a wheeled chassis of a patient handling equipment that is moveable along a surface, the assisted propulsion system comprising: a drive coupleable to the chassis via a mount and arranged to provide assisted propulsion to the chassis along the surface, the mount substantially decoupling at least a driving part of the drive from the chassis in a direction substantially perpendicular to the surface and being arranged to apply a resilient spring force to direct at least the driving part of the drive onto the surface during provision of said assisted propulsion; a controller arranged to control operation of the drive; and a sensor arranged i) to monitor acceleration of at least a part of the drive; and ii) to communicate data on said acceleration to the controller, wherein the controller is arranged to control operation of the drive in dependence on the data received from the sensor, wherein the controller is arranged to receive a control input from an operator of the chassis and is arranged to control operation of the multi-directional drive in dependence on the control input and on the data received from the sensor, wherein the controller is arranged to determine a change to the velocity and/or acceleration of the multi-directional drive from the control input and is arranged to determine a magnitude of said change in dependence on the control input and the data received from the sensor. a drive coupleable to the chassis via a mount and arranged to provide assisted propulsion to the chassis along the surface, the mount substantially decoupling at least a driving part of the drive from the chassis in a direction substantially perpendicular to the surface and being arranged to apply a resilient spring force to direct at least the driving part of the drive onto the surface during provision of said assisted propulsion; a controller arranged to control operation of the drive; and a sensor arranged i) to monitor acceleration of at least a part of the drive; and ii) to communicate data on said acceleration to the controller, i) to monitor acceleration of at least a part of the drive; and ii) to communicate data on said acceleration to the controller, wherein the controller is arranged to control operation of the drive in dependence on the data received from the sensor, wherein the controller is arranged to receive a control input from an operator of the chassis and is arranged to control operation of the multi-directional drive in dependence on the control input and on the data received from the sensor, wherein the controller is arranged to determine a change to the velocity and/or acceleration of the multi-directional drive from the control input and is arranged to determine a magnitude of said change in dependence on the control input and the data received from the sensor.
A method of producing a photochromic resin body, comprising: a first step of applying a sublimable photochromic dye having sublimability to a base body to obtain a function-adding base body; a second step of setting the function-adding base body obtained in the first step to face a resin body, of heating the function-adding base body to sublimate the sublimable photochromic dye applied to the function-adding base body, and of depositing the sublimable photochromic dye on the resin body; and a third step of heating the resin body on which the sublimable photochromic dye is deposited in the second step to fix the sublimable photochromic dye on the resin body, wherein the sublimable photochromic dye is at least one of a spirooxazine-based, a naphthopyran-based, a spiropyran-based, and a fulgide-based sublimable photochromic dye. a first step of applying a sublimable photochromic dye having sublimability to a base body to obtain a function-adding base body; a second step of setting the function-adding base body obtained in the first step to face a resin body, of heating the function-adding base body to sublimate the sublimable photochromic dye applied to the function-adding base body, and of depositing the sublimable photochromic dye on the resin body; and a third step of heating the resin body on which the sublimable photochromic dye is deposited in the second step to fix the sublimable photochromic dye on the resin body, wherein the sublimable photochromic dye is at least one of a spirooxazine-based, a naphthopyran-based, a spiropyran-based, and a fulgide-based sublimable photochromic dye.
A method of producing an electric motor (10, 100), in particular a stepper motor, the method comprising the steps of (a) producing a first rigid component (11; 121), in particular a first stator, having at least one tongue (12a, 12b; 12c; 122) provided with a recess (13; 123) to form two legs (14, 15), between which the recess is arranged, (b) producing a second rigid component (21; 111), in particular a second stator, having at least one protrusion (26; 116) being at least partially oversized relative to the recess (13; 123), and (c) pressing the protrusion (26; 116) into the recess (13; 123) so that the protrusion (26; 116) is arranged transversely to the legs (14, 15), the pressing being performed with a predetermined pressure applied to the first and/or second component for forming a rigid connection between the first and second component. (a) producing a first rigid component (11; 121), in particular a first stator, having at least one tongue (12a, 12b; 12c; 122) provided with a recess (13; 123) to form two legs (14, 15), between which the recess is arranged, (b) producing a second rigid component (21; 111), in particular a second stator, having at least one protrusion (26; 116) being at least partially oversized relative to the recess (13; 123), and (c) pressing the protrusion (26; 116) into the recess (13; 123) so that the protrusion (26; 116) is arranged transversely to the legs (14, 15), the pressing being performed with a predetermined pressure applied to the first and/or second component for forming a rigid connection between the first and second component.