mhurhangee/patent-ind-claim-en huggingface dataset:
A medical system , comprising a. a housing ; b. a preassembled functional module received in the housing , the pre-assembled functional module comprising b1. an analytical sensor for detecting at least one analyte in a body fluid of a user; b2. an electronics unit electrically connected to the analytical sensor ; b3. an insertion component for inserting the analytical sensor into a body tissue of the user, wherein the insertion component comprises at least one insertion cannula , with the analytical sensor partially received therein; and b4. at least one sterility cap at least partially surrounding the insertion component ; c. at least one removable protective cap connected to the housing , covering the preassembled functional module ; wherein the protective cap is removable from the housing by pulling off the protective cap from the housing , wherein the housing comprises at least one guiding surface for guiding the protective cap during pulling off the protective cap , wherein the preassembled functional module comprises at least one guiding surface for guiding the sterility cap during pulling off the sterility cap from the insertion component , wherein a length of the guiding surface of the housing exceeds a length of the guiding surface for the sterility cap . a. a housing ; b. a preassembled functional module received in the housing , the pre-assembled functional module comprising b1. an analytical sensor for detecting at least one analyte in a body fluid of a user; b2. an electronics unit electrically connected to the analytical sensor ; b3. an insertion component for inserting the analytical sensor into a body tissue of the user, wherein the insertion component comprises at least one insertion cannula , with the analytical sensor partially received therein; and b4. at least one sterility cap at least partially surrounding the insertion component ; b1. an analytical sensor for detecting at least one analyte in a body fluid of a user; b2. an electronics unit electrically connected to the analytical sensor ; b3. an insertion component for inserting the analytical sensor into a body tissue of the user, wherein the insertion component comprises at least one insertion cannula , with the analytical sensor partially received therein; and b4. at least one sterility cap at least partially surrounding the insertion component ; c. at least one removable protective cap connected to the housing , covering the preassembled functional module ;
A robotic lawnmower system , comprising a robotic lawnmower , said robotic lawnmower comprising a controller being configured to cause said robotic lawnmower to operate in a first operating mode for executing a first mowing pattern, which first operating mode is based on a current position, said current position being determined based on signals received from a Global Navigation Satellite System device ; determine that said received signals are not reliable, and in response thereto cause said robotic lawnmower to operate according to a second operating mode for executing a second mowing pattern, which second operating mode is not based on a current position being determined based on said received signals, wherein the second operating mode is solely based on a deduced reckoning operating pattern, wherein the second mowing pattern corresponds to the first mowing pattern and wherein the controller is further configured to determine that said signals received are reliable again, and in response thereto switch to said first operating mode, and wherein the controller is further configured to: determine an expected position, being a position the robotic lawnmower should have been if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected position or determine an expected movement line, being a movement line the robotic lawnmower should have been moving along if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected movement line, wherein the controller is configured to store a map and to adapt its operation based on a current position in the work area based on the map and the robotic lawnmower system is characterized in that the controller is configured to adapt the operation by initiating said second operating mode when the controller determines , based on the current position in the work area based on the map, that the robotic lawnmower is close to or about to enter a Global Navigation Satellite System blackout area. determine an expected position, being a position the robotic lawnmower should have been if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected position or determine an expected movement line, being a movement line the robotic lawnmower should have been moving along if it had continued operating in the first mode, and cause said robotic lawnmower to steer towards said expected movement line, wherein the controller is configured to store a map and to adapt its operation based on a current position in the work area based on the map and the robotic lawnmower system is characterized in that the controller is configured to adapt the operation by initiating said second operating mode when the controller determines , based on the current position in the work area based on the map, that the robotic lawnmower is close to or about to enter a Global Navigation Satellite System blackout area.
Vehicle, in particular rail vehicle , comprising at least one luggage rack with at least one luggage-separating web which projects at least in sections into the luggage rack region of the luggage rack , divides said luggage rack region into adjacent rack sections and impedes or prevents slipping of luggage between the adjacent rack sections, characterized in that at least one light-emitting element (51-53, 200-202, 300, 400) is arranged on the luggage-separating web , the light-emitting element (51-53, 200-202, 300, 400) is arranged in such a manner that the main beam direction of the light beam of the emitted light lies in the same vertically running plane which is spanned by the luggage-separating web between the adjacent rack sections, and the light-emitting element (51-53, 200-202, 300, 400) is arranged and oriented in such a manner that the light thereof falls onto the haunch region , located above the luggage rack , in particular the haunch covering, of the vehicle and/or onto that section of the vehicle ceiling which is located above the luggage rack .
A battery system for a vehicle , comprising: - a battery , comprising: - a housing ; - a plurality of battery cells disposed in the housing ; - a battery management system configured to monitor one or more operational parameters of the battery , wherein the battery management system is electrically coupled to a positive terminal and a negative terminal of the battery ; and - a multi-conductor connector disposed in an outer surface of the housing and electrically coupled to the battery management system ; and - a state of charge indicator configured to provide an indication of a state of charge of the battery , wherein the state of charge indicator comprises a first multi-conductor connector configured to couple to the multi-conductor connector of the battery and a second multi-conductor connector configured to couple to a charging/maintaining device of the battery system . - a battery , comprising: - a housing ; - a plurality of battery cells disposed in the housing ; - a battery management system configured to monitor one or more operational parameters of the battery , wherein the battery management system is electrically coupled to a positive terminal and a negative terminal of the battery ; and - a multi-conductor connector disposed in an outer surface of the housing and electrically coupled to the battery management system ; and - a housing ; - a plurality of battery cells disposed in the housing ; - a battery management system configured to monitor one or more operational parameters of the battery , wherein the battery management system is electrically coupled to a positive terminal and a negative terminal of the battery ; and - a multi-conductor connector disposed in an outer surface of the housing and electrically coupled to the battery management system ; and - a state of charge indicator configured to provide an indication of a state of charge of the battery , wherein the state of charge indicator comprises a first multi-conductor connector configured to couple to the multi-conductor connector of the battery and a second multi-conductor connector configured to couple to a charging/maintaining device of the battery system .
Method for the manufacturing of an Al-Mg-Si(-Cu) extrusion alloy, the alloy initially being cast to extrusion billet(s), containing in wt.% Si: 0,20 - 1,50 Mg: 0,25 - 1,50 Fe: 0,05 - 0,50 Cu: 0,00 - 1,00 Mn: 0,00 - 1,00 Cr: 0,00 - 0,50 Zn: 0,00 - 0,50 Ti: 0,00 - 0,20, and including incidental impurities and balance Al, wherein the billet, depending on its alloy composition and application, is heated to the desired homogenisation holding temperature T 1 between 520°C and 620°C and held at said temperature for a required time, wherein thereafter the billet is subjected to cooling from the homogenisation temperature T 1 to a temperature T 2 , or cooling to a temperature T 3 lower than T 2 and then reheating to T 2 , before onset of cooling at a rate of 150°C/h or faster wherein the temperature T 2 is at least 10°C lower than the temperature T 1 and at or above the solvus line for Mg+Si, and wherein the time between the temperature T 1 and the onset of cooling at a rate of 150°C/h or faster starting at the temperature T 2 is minimum 30 minutes and maximum 20 hours. Si: 0,20 - 1,50 Mg: 0,25 - 1,50 Fe: 0,05 - 0,50 Cu: 0,00 - 1,00 Mn: 0,00 - 1,00 Cr: 0,00 - 0,50 Zn: 0,00 - 0,50 Ti: 0,00 - 0,20, and including incidental impurities and balance Al,
A charging arrangement for a vehicle, the charging arrangement comprising: • a charge receiving connector secured to the roof of a vehicle, the charge receiving connector including at least four elongate charge receiving conductors , longitudinal axes of the charge receiving conductors being disposed substantially along the same line; and • a charging gantry including at least four charging conductors , the charging conductors being vertically movable between a raised position in which the charging conductors are clear of the vehicle when the vehicle is under the charging gantry, and a lowered position in which the charging conductors make contact with the charge receiving conductors on the roof of the vehicle, in which each charging conductor on the charging gantry is independently movable, and/or the charging conductors in the raised position are vertically offset from each other. • a charge receiving connector secured to the roof of a vehicle, the charge receiving connector including at least four elongate charge receiving conductors , longitudinal axes of the charge receiving conductors being disposed substantially along the same line; and • a charging gantry including at least four charging conductors , the charging conductors being vertically movable between a raised position in which the charging conductors are clear of the vehicle when the vehicle is under the charging gantry, and a lowered position in which the charging conductors make contact with the charge receiving conductors on the roof of the vehicle, in which each charging conductor on the charging gantry is independently movable, and/or the charging conductors in the raised position are vertically offset from each other.
Method for automatically stacking planar goods to be stacked, in particular transformer core plates, on a substrate, wherein goods to be stacked, in particular cut plates , are stacked using automated handling means , which can move about at least two axes inclined with respect to each other, at a desired target position and in a specific orientation and location on a placement table, in particular in order to form a transformer core, wherein for placement of the goods to be stacked, in particular the plates , at the desired position they are moved by a suitable movement of the handling means in a handling means coordinate system to an actual position on the placement table, wherein, in order to determine deviations of an actual position from a desired target position of the handling means, a reference coordinate system is used, with respect to which a calibration system is orientated which permits determination of the deviations of the movement of the handling means from their target position, and wherein the calibration system comprises a laser , which generates a laser beam , and comprises a detector , disposed at a distance therefrom, for the radiation, wherein the laser or the detector is disposed on the handling means and the counterpart is orientated with respect to the reference coordinate system , wherein the calibration system can detect the position and/or orientation of the laser relative to the detector in at least two dimensions, characterised in that the detector is orientated in such a way that the laser beam can be incident on it and that, in order to determine the deviations of the actual position from the desired target position of the handling means, the incident point of the laser beam on the detector is ascertained and compared with the expected incident point on the detector .
An integrated hydroprocessing, steam pyrolysis and slurry hydroprocessing process for direct conversion of crude oil to produce olefinic and aromatic petrochemicals, the process comprising: a. hydroprocessing the crude oil in the presence of hydrogen under conditions effective to produce a hydroprocessed effluent having a reduced content of contaminants, an increased paraffinicity, reduced Bureau of Mines Correlation Index, and an increased American Petroleum Institute gravity; b. thermally cracking hydroprocessed effluent and a slurry process product in the presence of steam in a steam pyrolysis zone under conditions effective to produce a mixed product stream; c. processing rejected residuals or bottoms derived from one or more of the hydroprocessed effluent, a heated stream within the steam pyrolysis zone, or the mixed product stream, in a slurry hydroprocessing zone to produce the slurry process product; d. separating the mixed product stream; e. purifying hydrogen recovered in step (d) and recycling it to the step of hydroprocessing; and f. recovering olefins and aromatics from the separated mixed product stream. a. hydroprocessing the crude oil in the presence of hydrogen under conditions effective to produce a hydroprocessed effluent having a reduced content of contaminants, an increased paraffinicity, reduced Bureau of Mines Correlation Index, and an increased American Petroleum Institute gravity; b. thermally cracking hydroprocessed effluent and a slurry process product in the presence of steam in a steam pyrolysis zone under conditions effective to produce a mixed product stream; c. processing rejected residuals or bottoms derived from one or more of the hydroprocessed effluent, a heated stream within the steam pyrolysis zone, or the mixed product stream, in a slurry hydroprocessing zone to produce the slurry process product; d. separating the mixed product stream; e. purifying hydrogen recovered in step (d) and recycling it to the step of hydroprocessing; and f. recovering olefins and aromatics from the separated mixed product stream.
A vapor compression system comprising: a compressor having a suction port and a discharge port ; a heat rejection heat exchanger coupled to the discharge port to receive compressed refrigerant; a heat absorption heat exchanger coupled to the suction port; a lubricant flowpath from the heat absorption heat exchanger to the compressor; and a side channel pump located in the lubricant flowpath, wherein the side channel pump includes an inlet coupled to an outlet on the heat absorption heat exchanger , characterized in that the side channel pump includes a vapor outlet port and a liquid outlet port , wherein the vapor outlet port is coupled to the heat rejection heat exchanger . a compressor having a suction port and a discharge port ; a heat rejection heat exchanger coupled to the discharge port to receive compressed refrigerant; a heat absorption heat exchanger coupled to the suction port; a lubricant flowpath from the heat absorption heat exchanger to the compressor; and a side channel pump located in the lubricant flowpath, wherein the side channel pump includes an inlet coupled to an outlet on the heat absorption heat exchanger , characterized in that the side channel pump includes a vapor outlet port and a liquid outlet port , wherein the vapor outlet port is coupled to the heat rejection heat exchanger .
A method for producing x-ray markers for a medical implant, wherein a material layer is provided, and wherein at least one region of the material layer forming the x-ray marker to be produced is pre-cut, such that said region is connected via at least one web , which forms a predetermined breaking point , to a part of the material layer surrounding the region , characterized in that , the predetermined breaking point is arranged in a section of the region such that the predetermined breaking point lies further inward in an extension direction (E) of the web than two edge portions of the region between which the section is disposed, wherein the predetermined breaking point is severed in order to detach the x-ray marker from said part of the material layer .
A plant frame and grate system comprising an open-bottomed frame comprising four walls and a partially-opened top wall capable of allowing vegetation to grow outward thereof and said vegetation's attended root system extends downward beyond the bottom edge of said frame ; further comprising a notch and a grate or plate positioned therein, supporting beams affixed to the interior of the frame or lateral cross members, characterized in that the system further comprises electrical outlets ; a first waterproof conduit embedded into the frame of the system through the interior of said system containing said electrical outlets and extends upward from the interior of the system so as to be accessible to a user once the system is installed; and a second waterproof conduit that is connected to said first waterproof conduit and that extends out from said system to a remote power source; wherein said electrical outlets provide power to said system so that decorative and/or aesthetically-pleasing devices may be incorporated into said system and/or onto vegetation planted in said system, and wherein said system further comprises a lock box by which to secure the accessible electrical outlets .
Method for reconstruction of temporal wavefront changes for use in an optical system comprising: measuring the distribution function of the light intensity, e.g. the two-dimensional distribution function of the light intensity, in at least two different images taken at different times, wherein said images are taken in the same optical plane of the optical system, identifying at least one image as intra-time image and at least one image as extra-time image, wherein said identifying is carried out on the basis that the intra-time image is taken at a time before the extra-time image is taken, applying a wavefront phase retrieval algorithm to the intra-time and extra-time image(s) for reconstructing temporal wavefront changes that occurred between the times at which said images were taken, said wavefront phase retrieval algorithm comprising a step of relating the wavefront phase φ in the cross-sections of the incoming light beam to the rate of change in the beam intensity I according to φ x y z t φt ≈ I x , y , z , t + δt − I x y z t , wherein I ( x, y, z, t + δt ) and I ( x, y, z, t) are the measured intensities in the extra-time image taken at time t = t + δt and in the intra-time image taken at time t , and wherein x,y,z are coordinates in an orthogonal coordinate system for the optical system, wherein the Z-axis is aligned with the optical axis. measuring the distribution function of the light intensity, e.g. the two-dimensional distribution function of the light intensity, in at least two different images taken at different times, wherein said images are taken in the same optical plane of the optical system, identifying at least one image as intra-time image and at least one image as extra-time image, wherein said identifying is carried out on the basis that the intra-time image is taken at a time before the extra-time image is taken, applying a wavefront phase retrieval algorithm to the intra-time and extra-time image(s) for reconstructing temporal wavefront changes that occurred between the times at which said images were taken, said wavefront phase retrieval algorithm comprising a step of relating the wavefront phase φ in the cross-sections of the incoming light beam to the rate of change in the beam intensity I according to φ x y z t φt ≈ I x , y , z , t + δt − I x y z t , wherein I ( x, y, z, t + δt ) and I ( x, y, z, t) are the measured intensities in the extra-time image taken at time t = t + δt and in the intra-time image taken at time t , and wherein x,y,z are coordinates in an orthogonal coordinate system for the optical system, wherein the Z-axis is aligned with the optical axis.
An artificial joint stem comprising: a base having an outer surface comprising a rough surface; and a coating film disposed on the rough surface of the base , wherein the rough surface comprises an exposed region exposed from the coating film , characterized in that the coating film contains a calcium phosphate-based material and an antimicrobial material, wherein a surface roughness of the exposed region of the rough surface is greater than a surface roughness of the coating film . a base having an outer surface comprising a rough surface; and a coating film disposed on the rough surface of the base , wherein the rough surface comprises an exposed region exposed from the coating film , characterized in that the coating film contains a calcium phosphate-based material and an antimicrobial material, wherein a surface roughness of the exposed region of the rough surface is greater than a surface roughness of the coating film .
Access system for a vehicle , in particular for activating an electric lock of the vehicle : - at least one actuation sensor , by means of which a first inductance detection can be carried out to detect an activation action, - at least one information sensor , by means of which a second inductance detection can be carried out, so that additional information on the activation action can be determined, whereby the detection of the activation action can be made plausible, wherein the information sensor is arranged on the vehicle in such a way that a disturbance influence on the detection of the activation action can be detected by the second inductance detection , characterized in that the plausibility check is carried out by using the second inductance detection to determine a threshold value for an evaluation for detection. - at least one actuation sensor , by means of which a first inductance detection can be carried out to detect an activation action, - at least one information sensor , by means of which a second inductance detection can be carried out, so that additional information on the activation action can be determined, whereby the detection of the activation action can be made plausible, wherein the information sensor is arranged on the vehicle in such a way that a disturbance influence on the detection of the activation action can be detected by the second inductance detection , characterized in that the plausibility check is carried out by using the second inductance detection to determine a threshold value for an evaluation for detection.