mhurhangee/patent-ind-claim-en huggingface dataset:
Equipment for selectively depositing by shockwave-induced spraying at least one particle onto a deposition surface of a receiver substrate , said equipment comprising: - at least one laser source configured to emit a laser beam , said laser beam being made up of a series of light pulses; - a substrate carrier to which the substrate is fastened; - a shockwave-generating layer comprising a first surface that is oriented toward the laser beam and a second surface that is oriented toward the deposition surface of the substrate; - an optical system for directing and focusing said laser beam toward a focal region of the first surface of the generating layer; - said second surface comprising a plurality of cavities , each of the cavities housing at least one particle ; - said laser beam being configured to generate a plasma in the focal region on the first surface of the generating layer and a shockwave that propagates within the generating layer from the first surface to the second surface of the generating layer in order to eject at least one particle in the direction of the deposition surface of the receiver substrate . - at least one laser source configured to emit a laser beam , said laser beam being made up of a series of light pulses; - a substrate carrier to which the substrate is fastened; - a shockwave-generating layer comprising a first surface that is oriented toward the laser beam and a second surface that is oriented toward the deposition surface of the substrate; - an optical system for directing and focusing said laser beam toward a focal region of the first surface of the generating layer; - said second surface comprising a plurality of cavities , each of the cavities housing at least one particle ; - said laser beam being configured to generate a plasma in the focal region on the first surface of the generating layer and a shockwave that propagates within the generating layer from the first surface to the second surface of the generating layer in order to eject at least one particle in the direction of the deposition surface of the receiver substrate .
A dismountable and dismantlable loading system for loading a reactor with bulk material , comprising: (a) a dismantlable rail system with a multiplicity of rail segments which can be connected to one another to form a self-contained rail system 3, wherein the individual rail segments have attachment means for connecting the rail segments to one another, (b) at least one rail vehicle for operation on the rail system , having a holding device for containers for receiving the bulk material , and (c) at least one filling station for receiving the bulk material , having a hose present in the floor of the filling station for transporting the bulk material into various areas of the reactor . (a) a dismantlable rail system with a multiplicity of rail segments which can be connected to one another to form a self-contained rail system 3, wherein the individual rail segments have attachment means for connecting the rail segments to one another, (b) at least one rail vehicle for operation on the rail system , having a holding device for containers for receiving the bulk material , and (c) at least one filling station for receiving the bulk material , having a hose present in the floor of the filling station for transporting the bulk material into various areas of the reactor .
A display board , comprising: a core structure , including: a three-dimensional core having a front surface (F) and a back surface (B); a first rigid board attached to the front surface (F); a second rigid board attached to the back surface (B);; and respective rigid skins applied to an exposed surface of each of the first rigid board and the second rigid board ; multiple apertures extending i) through the rigid skin applied to the second rigid board , the second rigid board and the back surface (B) and ii) into the three-dimensional core a depth that is less than a thickness of the three-dimensional core , the multiple apertures having a diameter D; and an insert , formed of a flexible material, that is complementarily shaped with the apertures and that is to be inserted into any one of the multiple apertures , the insert having a diameter d larger than the diameter D of the multiple apertures within less than 1 mm of the diameter D, the insert having a mount receiving portion formed therein. a core structure , including: a three-dimensional core having a front surface (F) and a back surface (B); a first rigid board attached to the front surface (F); a second rigid board attached to the back surface (B);; and respective rigid skins applied to an exposed surface of each of the first rigid board and the second rigid board ; a three-dimensional core having a front surface (F) and a back surface (B); a first rigid board attached to the front surface (F); a second rigid board attached to the back surface (B);; and respective rigid skins applied to an exposed surface of each of the first rigid board and the second rigid board ; multiple apertures extending i) through the rigid skin applied to the second rigid board , the second rigid board and the back surface (B) and ii) into the three-dimensional core a depth that is less than a thickness of the three-dimensional core , the multiple apertures having a diameter D; and an insert , formed of a flexible material, that is complementarily shaped with the apertures and that is to be inserted into any one of the multiple apertures , the insert having a diameter d larger than the diameter D of the multiple apertures within less than 1 mm of the diameter D, the insert having a mount receiving portion formed therein.
Surround-view system for a vehicle , having: a first camera for recording a first image of the vehicle environment having a marking area with an asymmetric region for which there is no axis along which the region is mirror-symmetrical and/or for which there is no point with respect to which the region is point-symmetrical; a second camera for recording a second image of the vehicle environment having the marking area; a control device for stitching the first and second image and for calibrating the surround-view system; wherein the control device is configured to search for the marking area in each case in the first image and the second image for calibration purposes; wherein the control device is configured to use only those marking areas found in the first and second image for calibrating the surround-view system whose asymmetric regions are not reflected as compared to the marking area of the vehicle environment and wherein the control device is configured to search in the first image and the second image in each case for a marking area with four marking symbols arranged in a square and the asymmetric region arranged at the centre of the four marking symbols and to use it for calibration purposes. a first camera for recording a first image of the vehicle environment having a marking area with an asymmetric region for which there is no axis along which the region is mirror-symmetrical and/or for which there is no point with respect to which the region is point-symmetrical; a second camera for recording a second image of the vehicle environment having the marking area; a control device for stitching the first and second image and for calibrating the surround-view system; wherein the control device is configured to search for the marking area in each case in the first image and the second image for calibration purposes; wherein the control device is configured to use only those marking areas found in the first and second image for calibrating the surround-view system whose asymmetric regions are not reflected as compared to the marking area of the vehicle environment and wherein the control device is configured to search in the first image and the second image in each case for a marking area with four marking symbols arranged in a square and the asymmetric region arranged at the centre of the four marking symbols and to use it for calibration purposes.
Solder pot, in particular a selective solder pot for a soldering system for selective wave soldering, comprising a solder pump for conveying an electrically conductive fluid, in particular a liquid solder, which pump is equipped with a conveyor channel , which extends along a circular path at least in portions and has an inlet and an outlet , and with a device for generating a moving magnetic field, the device comprising at least one permanent magnet and being designed such that the permanent magnet is moved along the conveyor channel during operation, and during operation rotates about an axis of rotation which is arranged concentrically to the circular path , characterized in that the conveyor channel , on the side thereof which faces away from the permanent magnet , is delimited by a ferromagnetic material , and in that the conveyor channel , on the side thereof which faces the permanent magnet, is delimited by a non-ferromagnetic material .
A smoking article comprising: a smokable material ; and an activated carbon particle downstream of the smokable material, the activated carbon particle produced from a whole seed without mechanical disruption, wherein the activated carbon particle has a length, width, and height, wherein at least two of the length, the width and the height are independently in a range from 1 mm to 7.5 mm. a smokable material ; and an activated carbon particle downstream of the smokable material, the activated carbon particle produced from a whole seed without mechanical disruption, wherein the activated carbon particle has a length, width, and height, wherein at least two of the length, the width and the height are independently in a range from 1 mm to 7.5 mm.
Arrangement for creating ambient lighting for a vehicle , comprising - an ambient lighting unit having - a light element for creating ambient lighting, and - a touch-sensitive input element for modifying a light intensity and/or a hue of the ambient lighting, wherein - the touch-sensitive input element is arranged in the immediate vicinity of the light element , and - a control unit , wherein - the control unit is configured, in response to a signal of the touch-sensitive input element , - to control a screen for displaying a menu for adjusting the ambient lighting, and to adjust - a light intensity, and/or - a light color, and/or - a light color change rate and/or - a light color change characteristic of the ambient lighting, characterized in that the screen is configured to display information about the possibility of adjusting the ambient lighting by means of the touch-sensitive input element . - an ambient lighting unit having - a light element for creating ambient lighting, and - a touch-sensitive input element for modifying a light intensity and/or a hue of the ambient lighting, wherein - the touch-sensitive input element is arranged in the immediate vicinity of the light element , and - a control unit , wherein - the control unit is configured, in response to a signal of the touch-sensitive input element , - to control a screen for displaying a menu for adjusting the ambient lighting, and to adjust - a light intensity, and/or - a light color, and/or - a light color change rate and/or - a light color change characteristic of the ambient lighting, characterized in that the screen is configured to display information about the possibility of adjusting the ambient lighting by means of the touch-sensitive input element .
A medical implant comprising: a substrate comprising a biocompatible alloy; a diffusion hardened zone in contact with said substrate, said diffusion hardened zone comprising a diffusion hardening species; a substantially defect free ceramic layer in contact with said diffusion hardened zone, and a metallic hardened layer comprising a surface of said medical implant. a substrate comprising a biocompatible alloy; a diffusion hardened zone in contact with said substrate, said diffusion hardened zone comprising a diffusion hardening species; a substantially defect free ceramic layer in contact with said diffusion hardened zone, and a metallic hardened layer comprising a surface of said medical implant.
A sensor housing having at least one sensor element, wherein a part of the sensor housing projects into a fastening groove of a metal fastening member to fasten the sensor housing ; wherein the fastening groove is a C-shaped groove; wherein the fastening groove has a straight section and a section of part circle shape adjoining it; wherein a screw is provided at the sensor housing ; wherein the screw has an actuation element to rotate the screw ; wherein an axis of rotation for the screw is transverse to a longitudinal axis of the fastening groove having a first tensioning wing that is rotationally movably connected to the sensor housing, that is connected to the screw by means of a thread , that can be brought into a clamping position by rotation with a sensor housing placed into the fastening groove in which clamping position it can be tensioned with oppositely disposed inner surfaces of the fastening groove ; and wherein the first tensioning wing has two clamping wings that face radially outwardly with respect to its axis of rotation, that are located at oppositely disposed points of the first tensioning wing with respect to the axis of rotation, and via which the first tensioning wing can be tensioned between the inner surfaces of the groove wall in the clamping position, characterized in that a second tensioning wing is arranged that is rotationally movably connected to the sensor housing, that is connected to the screw by means of a thread , and that can be brought into a clamping position by rotation with a sensor housing placed into the fastening groove , in which clamping position it can be tensioned with oppositely disposed inner surfaces of the fastening groove ; and in that the second tensioning wing has two clamping wings that face radially outwardly with respect to its axis of rotation that are located at oppositely disposed points of the second tensioning wing with respect to its axis of rotation, and via which the second tensioning wing can be tensioned between the inner surfaces of the groove wall in the clamping position , with the second tensioning wing being arranged between the actuation element and the first tensioning wing , with the outer surfaces of the clamping wings of the second tensioning wing having a greater diameter than the outer surfaces of the clamping wings of the first tensioning wing , and with the sensor housing being tensioned with the first tensioning wing or with the second tensioning wing in the fastening groove.
A method for operating a base station in a wireless communication system, the method comprising the steps of: receiving a desired signal within a desired bandwidth, BW, from a user equipment, UE , and interfering signals from interfering UEs connected to at least one neighboring base station ; obtaining a subspace blind interference sensing, BIS, bandwidth by expanding the desired bandwidth based on energy detected on outside the desired bandwidth but within the whole uplink bandwidth; obtaining candidate interference bandwidths based on performing interference case detection for each pair of consecutive resource blocks, RBs, in the subspace BIS bandwidth obtaining candidate interference demodulation reference signal, DMRS, sequences for at least one candidate interfering signal, based on at least one cell served by the at least one neighboring base station, and the candidate interference bandwidths ; identifying a subset of the interfering UEs based on the candidate interference DMRS sequences and one or more metrics for the at least one candidate interfering signal; and performing an interference suppression or an interference cancellation on the identified subset of the interfering UEs. receiving a desired signal within a desired bandwidth, BW, from a user equipment, UE , and interfering signals from interfering UEs connected to at least one neighboring base station ; obtaining a subspace blind interference sensing, BIS, bandwidth by expanding the desired bandwidth based on energy detected on outside the desired bandwidth but within the whole uplink bandwidth; obtaining candidate interference bandwidths based on performing interference case detection for each pair of consecutive resource blocks, RBs, in the subspace BIS bandwidth obtaining candidate interference demodulation reference signal, DMRS, sequences for at least one candidate interfering signal, based on at least one cell served by the at least one neighboring base station, and the candidate interference bandwidths ; identifying a subset of the interfering UEs based on the candidate interference DMRS sequences and one or more metrics for the at least one candidate interfering signal; and performing an interference suppression or an interference cancellation on the identified subset of the interfering UEs.
A process for applying one or more foam layers to a top surface of an innercore unit and bucket assembly, comprising: transferring the innercore unit and bucket assembly onto a planar conveying surface of an adhesive application station ; moving the planar conveying surface carrying the innercore unit and bucket assembly along a travel path; detecting a leading edge of the innercore unit and bucket assembly with a sensor; automatically spraying a controlled amount of an adhesive in a defined pattern onto the top surfaces of the innercore unit and bucket assembly beginning at the leading edge to a trailing edge, wherein automatically spraying the controlled amount of the adhesive comprises discharging the adhesive from a bridge spanning across the travel path, wherein the bridge comprises a plurality of spray nozzles movable across the bridge in fluid communication with a source of the adhesive, wherein the plurality of spray nozzles are located on the bridge ; adjusting the adhesive application based on density and hardness properties of the foam layer and foam layer sequence; detecting the trailing edge of the innercore unit and bucket assembly ; discontinuing the spraying of the adhesive; and subsequently placing and securing one or more foam layers onto the adhesive applied to the innercore and bucket assembly. transferring the innercore unit and bucket assembly onto a planar conveying surface of an adhesive application station ; moving the planar conveying surface carrying the innercore unit and bucket assembly along a travel path; detecting a leading edge of the innercore unit and bucket assembly with a sensor; automatically spraying a controlled amount of an adhesive in a defined pattern onto the top surfaces of the innercore unit and bucket assembly beginning at the leading edge to a trailing edge, wherein automatically spraying the controlled amount of the adhesive comprises discharging the adhesive from a bridge spanning across the travel path, wherein the bridge comprises a plurality of spray nozzles movable across the bridge in fluid communication with a source of the adhesive, wherein the plurality of spray nozzles are located on the bridge ; adjusting the adhesive application based on density and hardness properties of the foam layer and foam layer sequence; detecting the trailing edge of the innercore unit and bucket assembly ; discontinuing the spraying of the adhesive; and subsequently placing and securing one or more foam layers onto the adhesive applied to the innercore and bucket assembly.
A coolant system for an electric vehicle , the vehicle comprising at least a first vehicle heat generating component and a second vehicle heat generating component , said coolant system comprising a fluid circuit configured to define a fluid passageway for circulating a coolant there through and a coolant assembly arranged in said fluid circuit, wherein said coolant assembly is configured to decrease the temperature of a portion of the coolant to a first temperature and to supply the portion of coolant to the first vehicle heat generating component via a first supply branch of the fluid circuit and further configured to decrease the temperature of a remaining portion of the coolant to a second temperature and to supply the remaining portion of coolant to the second vehicle heat generating component via a second supply branch of the fluid circuit, said system further comprising a first pump unit arranged downstream of said coolant assembly in said first supply branch and in fluid communication with said coolant assembly and said first vehicle heat generating component, said first pump unit being configured to direct said portion of coolant to said first vehicle heat generating component, and a second pump unit arranged downstream of said coolant assembly in said second supply branch and in fluid communication with said coolant assembly and said second vehicle heat generating component, said second pump unit being configured to direct said remaining portion of coolant to said second vehicle heat generating component, and characterized in that said system further comprises a controllable valve for directing the flow of coolant and a heater for heating the coolant, said controllable valve being arranged upstream of said coolant assembly in a return flow path of said fluid circuit, said first supply branch and said second supply branch intersecting into said return flow path upstream of said controllable valve , said controllable valve further being in fluid communication with said coolant assembly and said heater , and said heater being arranged in a by-pass branch extending from said controllable valve and in fluid communication with said controllable valve and any one of the first vehicle heat generating component and the second vehicle heat generating component, so that said controllable valve can control the flow of coolant to the coolant assembly and the heater.
Longitudinal adjuster for a vehicle seat , having - at least one rail pair , comprising a lower rail and an upper rail , which can be moved longitudinally relative to the lower rail , - at least one locking unit for locking the upper rail , and - at least one actuating element for releasing the locking of the upper rail , - wherein the locking unit comprises at least one locking element and at least one spring element , which are in operative engagement with one another, - wherein the spring element is connected to the upper rail in a form- and force-fitting manner by means of a plug-in/latching connection (S), and - wherein the spring element applies a preloading force to the actuating element and to the locking element . - at least one rail pair , comprising a lower rail and an upper rail , which can be moved longitudinally relative to the lower rail , - at least one locking unit for locking the upper rail , and - at least one actuating element for releasing the locking of the upper rail , - wherein the locking unit comprises at least one locking element and at least one spring element , which are in operative engagement with one another, - wherein the spring element is connected to the upper rail in a form- and force-fitting manner by means of a plug-in/latching connection (S), and - wherein the spring element applies a preloading force to the actuating element and to the locking element .
Vegetable protein hydrolyzate of broad bean and/or fava bean, characterized in that it comprises at least 85% protein, in that it comprises sodium at a concentration of less than 4.5% and in that it is obtained by a process comprising a step of solubilization of the proteins of broad bean and/or fava bean in an aqueous medium at a pH less than or equal to 8.5.