mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing hardened steel sheet components, wherein at least two metal layers are deposited successively on a strip of a quench-hardenable steel alloy as anti-corrosion coating on the steel substrate, the one metal layer being a layer made of zinc or based on zinc and the other layer being a layer made of a metal which forms intermetallically less noble phases with Zn or Fe and has a higher oxidation potential than Zn, namely Ni, Cu, Co, Mn or Mo, or is a layer based on these metals, and wherein steels of the general alloy composition, each in weight percent: Carbon (C) 0.08-0.6 Manganese (Mn) 0.8-3.0 Aluminum (Al) 0.01-0.07 Silicon (Si) 0.01-0.5 Chromium (Cr) 0.02-0.6 Titanium (Ti) 0.01-0.08 Nitrogen (N) < 0.02 Boron (B) 0.002-0.02 Phosphorus (P) < 0.01 Sulphur (S) < 0.01 Molybdenum (Mo) < 1 the balance being iron and smelting impurities are used, wherein blanks are punched out of the strip provided with the anti-corrosion coating and the blanks are either - heated to a temperature > Ac 3 and optionally maintained there and then formed in a press hardening tool and quench-hardened to produce the steel sheet component, or - the blanks are formed into a steel sheet component in the cold state and the steel sheet component is subsequently heated to a temperature > Ac 3 and quench-hardened in a die hardening tool, with the layer sequence between nickel, copper and manganese on the one hand and zinc or based on zinc on the other hand being applied repeatedly. - heated to a temperature > Ac 3 and optionally maintained there and then formed in a press hardening tool and quench-hardened to produce the steel sheet component, or - the blanks are formed into a steel sheet component in the cold state and the steel sheet component is subsequently heated to a temperature > Ac 3 and quench-hardened in a die hardening tool, with the layer sequence between nickel, copper and manganese on the one hand and zinc or based on zinc on the other hand being applied repeatedly.
A fingerprint recognition module, comprising: a receiving electrode layer comprising a plurality of receiving electrodes arranged in an array along a first direction and a second direction intersecting with the first direction; a piezoelectric material layer disposed on a side of the receiving electrode layer ; and a driving electrode layer disposed on a side of the piezoelectric material layer remote from the receiving electrode layer and comprising a plurality of driving electrodes arranged along the second direction , wherein each of the plurality of driving electrodes is a strip electrode extending along the first direction , and an orthographic projection of the each of the plurality of driving electrodes on the piezoelectric material layer at least partially overlaps with an orthographic projection of multiple receiving electrodes arranged along the first direction on the piezoelectric material layer ; characterised in that each of the plurality of driving electrodes comprises a first sub-driving electrode in contact with the piezoelectric material layer and a second sub-driving electrode on a side of the first sub-driving electrode remote from the piezoelectric material layer , wherein a thickness of the first sub-driving electrode is less than a thickness of the second sub-driving electrode . a receiving electrode layer comprising a plurality of receiving electrodes arranged in an array along a first direction and a second direction intersecting with the first direction; a piezoelectric material layer disposed on a side of the receiving electrode layer ; and a driving electrode layer disposed on a side of the piezoelectric material layer remote from the receiving electrode layer and comprising a plurality of driving electrodes arranged along the second direction , wherein each of the plurality of driving electrodes is a strip electrode extending along the first direction , and an orthographic projection of the each of the plurality of driving electrodes on the piezoelectric material layer at least partially overlaps with an orthographic projection of multiple receiving electrodes arranged along the first direction on the piezoelectric material layer ; characterised in that each of the plurality of driving electrodes comprises a first sub-driving electrode in contact with the piezoelectric material layer and a second sub-driving electrode on a side of the first sub-driving electrode remote from the piezoelectric material layer , wherein a thickness of the first sub-driving electrode is less than a thickness of the second sub-driving electrode .
Electrical connecting terminal between two conducting elements (4.1-4.3, 12.1-12.3), said terminal comprising: - at least one clamping screw comprising a head and a thread , - a connector for each screw, each connector comprising a first stage delimiting an internal thread for receiving the clamping screw, and a second stage comprising a hole for the passage of the screw, aligned with the internal thread, the first stage being movable relative to the second stage parallel to an axis (X6) of the screw, - a receiver for receiving a first conducting element (4.1-4.3) between the two stages of the connector, and characterised in that : - the terminal comprises a stirrup , mounted around each screw , between the head and the thread of the screw, - the terminal comprises a receiver for receiving a second conducting element (12.1-12.3) between the stirrup and the connector , - the second stage is arranged between the first stage and the stirrup, - the two stages of the connector are in one piece, - the connector is C-shaped, and - the first stage and the second stage of the connector form two parallel branches of the C. - at least one clamping screw comprising a head and a thread , - a connector for each screw, each connector comprising a first stage delimiting an internal thread for receiving the clamping screw, and a second stage comprising a hole for the passage of the screw, aligned with the internal thread, the first stage being movable relative to the second stage parallel to an axis (X6) of the screw, - a receiver for receiving a first conducting element (4.1-4.3) between the two stages of the connector, and - the terminal comprises a stirrup , mounted around each screw , between the head and the thread of the screw, - the terminal comprises a receiver for receiving a second conducting element (12.1-12.3) between the stirrup and the connector , - the second stage is arranged between the first stage and the stirrup, - the two stages of the connector are in one piece, - the connector is C-shaped, and - the first stage and the second stage of the connector form two parallel branches of the C.
Method for reducing an amount of marking material to be used for printing an image on a receiving material using a printing process, the image comprising image pixels , each image pixel having a pixel value selected from a first value indicating that marking material is to be applied and a second value indicating that no marking material is to be applied, wherein the printing process is configured to apply print pixels , characterized in that each image pixel is associated with at least two print pixels, the method comprising the step of generating a print signal that indicates for each print pixel whether marking material is to be applied or not based on the corresponding pixel value, wherein the step of generating the print signal comprises filtering the print pixels using a predefined mask that defines for which print pixels no marking material is to be applied independent of the pixel value of the associated image pixel.
Method for adjusting fusion weightings (FG) of an odometry unit of a rail vehicle , - wherein the odometry unit is embodied to combine odometric data records (v F , P F (t); v D , P D (t)) determined from different types of odometric sensors of the rail vehicle with the aid of the fusion weightings (FG) weighted to form fused odometric data (v, P(t)), having the steps: - capturing sensor data (SD; BD, TD, FSD, LSD) from the interior and/or the surroundings of the rail vehicle with the aid of at least one sensor unit , wherein at least one of the at least one sensor unit comprises an internal image-recording unit , - determining weather data (WD) on the basis of the captured sensor data (SD; BD, TD, FSD, LSD), - defining fusion weightings (FG) as a function of the determined weather data (WD). - wherein the odometry unit is embodied to combine odometric data records (v F , P F (t); v D , P D (t)) determined from different types of odometric sensors of the rail vehicle with the aid of the fusion weightings (FG) weighted to form fused odometric data (v, P(t)), - capturing sensor data (SD; BD, TD, FSD, LSD) from the interior and/or the surroundings of the rail vehicle with the aid of at least one sensor unit , wherein at least one of the at least one sensor unit comprises an internal image-recording unit , - determining weather data (WD) on the basis of the captured sensor data (SD; BD, TD, FSD, LSD), - defining fusion weightings (FG) as a function of the determined weather data (WD).
A method for decelerating a vehicle (1; 200), wherein the vehicle includes an electro-pneumatic brake system , at least one front axle (3; 230), at least one rear axle (4; 240), and a brake value transmitter (5; 250) with at least one sensor for generating a brake control signal for performing open-loop and/or closed-loop control of the brake system , wherein the vehicle further includes at least one axle modulator (10; 210) for the front axle (3; 230) of the vehicle , for performing open-loop and/or closed-loop control of at least one front axle brake pressure at the at least one front axle (3; 230), and/or at least one axle modulator (11; 220) for the rear axle (4; 240) of the vehicle (1; 200), for performing open-loop and/or closed-loop control of a rear axle brake pressure at the at least one rear axle (4; 240) of the vehicle (1; 200), characterized by the following steps: a. generating a redundancy signal at a first axle, the front axle (3; 230) or rear axle (4; 240), or at a trailer control valve , and b. performing open-loop and/or closed-loop control of an auxiliary brake pressure at another axle, the front axle (3; 230) or the rear axle (4; 240), via the redundancy signal . a. generating a redundancy signal at a first axle, the front axle (3; 230) or rear axle (4; 240), or at a trailer control valve , and b. performing open-loop and/or closed-loop control of an auxiliary brake pressure at another axle, the front axle (3; 230) or the rear axle (4; 240), via the redundancy signal .
A composition comprising insulin for use in promoting gastric emptying in a subject in need thereof, wherein the composition is to be administered enterally, wherein the subject is a low birth weight infant, and wherein the composition provides a total amount of insulin to the subject of about 0.001U/kg/day to about 1.0 U/kg/day.
A gas turbine engine comprising a compressor , the compressor comprising a plurality of blades mounted to a hollow, annular compressor drum , wherein the compressor comprises an electric storage device , characterised in that the electric storage device is mounted within the hollow compressor drum .
A method implemented in a decoder, the method comprising: receiving , by a receiver of the decoder, a bitstream comprising a parameter set and one or more sub-pictures partitioned from a picture; decoding, by a processor of the decoder, the parameter set to obtain a first flag indicating whether in-loop filtering operations across subpicture boundaries is enabled; wherein the parameter set further comprises a sub-picture identifier (ID) for each of the one or more sub-pictures, a sub-picture size for each of the one or more sub-pictures and a sub-picture location for each of the one or more sub-pictures, wherein the sub-picture ID, the sub-picture size and the sub-picture location are comprised in a sequence parameter set, SPS; generating , by the processor, a current sub-picture to create a video sequence based on the first flag, the sub-picture ID, the sub-picture size, and the sub-picture location; wherein when the first flag is equal to one, in-loop filtering operations across subpicture boundaries of the current sub-picture is enabled; when the first flag is equal to zero, in-loop filtering operations are not performed across sub-picture boundaries of the current sub-picture. receiving , by a receiver of the decoder, a bitstream comprising a parameter set and one or more sub-pictures partitioned from a picture; decoding, by a processor of the decoder, the parameter set to obtain a first flag indicating whether in-loop filtering operations across subpicture boundaries is enabled; wherein the parameter set further comprises a sub-picture identifier (ID) for each of the one or more sub-pictures, a sub-picture size for each of the one or more sub-pictures and a sub-picture location for each of the one or more sub-pictures, wherein the sub-picture ID, the sub-picture size and the sub-picture location are comprised in a sequence parameter set, SPS; generating , by the processor, a current sub-picture to create a video sequence based on the first flag, the sub-picture ID, the sub-picture size, and the sub-picture location; wherein when the first flag is equal to one, in-loop filtering operations across subpicture boundaries of the current sub-picture is enabled; when the first flag is equal to zero, in-loop filtering operations are not performed across sub-picture boundaries of the current sub-picture.
Mobile boat hoist equipped with retractable longitudinal members comprising at least one pair of portal frames spaced apart from one another, a track connected to the top of each frame, at least one spacer crossbeam , connecting said pair of frames, at least one lifting trolley that can slide on said track, wherein said mobile boat hoist comprises a retractable longitudinal member hinged along a horizontal axis near an upper end of each frame, a track connected to each retractable longitudinal member , hinged and collapsible stiffening devices comprising connecting struts and tie rods between each longitudinal member and the frame to which said longitudinal member is hinged; each of said frames further comprises at least one lower longitudinal member connecting at least two vertical supports or legs in the lower part, and at least one upper longitudinal member connecting said vertical supports in the upper part, where said pair of frames is joined in a spaced apart manner to a first end side from said spacer crossbeam , preferably in the upper part of each frame, where said track of said one or more lifting trolleys is connected with said each upper longitudinal member ; on each upper longitudinal member , near the end of the second side, opposite to the end of the first joining side of said spacer crossbeam , said retractable longitudinal member is hinged that rotates from a first raised/near/adjacent position with respect to the upper longitudinal member to a second extended position and in continuation of the upper longitudinal member , in alignment with the track of one or more lifting trolleys , creating an extended track extending from each upper longitudinal member to the retractable longitudinal member .
An x-ray emitter device , comprising: an angled electron anode target , having an angled surface and producing an electric field adjacent to its angled surface; and a cold cathode electron source having at least one electron emitting zone configured to emit electrons towards said angled electron anode target; wherein the angled surface forms an angle to the plane of said electron emitting zone; wherein said x-ray emitter device is characterized by : said angled surface having a step within the surface so to form a stepped angled surface; said cold cathode electron source comprises a focus structure operable to direct said electrons towards an electron focal spot close to said step within the stepped angled surface of said angled electron anode target; such that the electric field adjacent to the step within the surface of the electron anode target is asymmetrical and ions generated near the target anode surface are accelerated by the electric field towards the electron source at a deflection angle towards at least one ion landing area in the plane of said electron emitting zone of said cold cathode electron source, said ion landing area (13 lies outside said electron emitting zone of said cold cathode electron source. an angled electron anode target , having an angled surface and producing an electric field adjacent to its angled surface; and a cold cathode electron source having at least one electron emitting zone configured to emit electrons towards said angled electron anode target; wherein the angled surface forms an angle to the plane of said electron emitting zone; said angled surface having a step within the surface so to form a stepped angled surface; said cold cathode electron source comprises a focus structure operable to direct said electrons towards an electron focal spot close to said step within the stepped angled surface of said angled electron anode target; such that the electric field adjacent to the step within the surface of the electron anode target is asymmetrical and ions generated near the target anode surface are accelerated by the electric field towards the electron source at a deflection angle towards at least one ion landing area in the plane of said electron emitting zone of said cold cathode electron source, said ion landing area (13 lies outside said electron emitting zone of said cold cathode electron source.
Arrangement for contactless determination of at least one dimension of a moving material web, in particular a material web made of opaque material, - with a backlight , - with optical detection means for detecting at least one momentary contrast image , and - with evaluation means , - wherein a continuous movement of the material web is possible in a plane between the at least one optical detection means and the backlight , - wherein the momentary contrast image has at least one information about at least one light intensity laterally adjacent to the material web , - wherein at least one shading element partially covering the backlight is arranged between the backlight and the material web so that the shading element is partially covered by the material web , and - wherein the momentary contrast image represents a shading of the backlight by the material web and by the shading element , characterized - in that the evaluation means are configured to compare the momentary contrast image with a reference contrast image, - wherein the reference contrast image corresponds to a shading of the backlight only by the shading element , and - in that the evaluation means are configured to determine a correction factor from the comparison and to take this correction factor into account for determining the real dimension of the material web , - wherein the real dimension corresponds to the actual width of the web at which the momentary contrast image was generated. - with a backlight , - with optical detection means for detecting at least one momentary contrast image , and - with evaluation means , - wherein a continuous movement of the material web is possible in a plane between the at least one optical detection means and the backlight , - wherein the momentary contrast image has at least one information about at least one light intensity laterally adjacent to the material web , - wherein at least one shading element partially covering the backlight is arranged between the backlight and the material web so that the shading element is partially covered by the material web , and - wherein the momentary contrast image represents a shading of the backlight by the material web and by the shading element , characterized - in that the evaluation means are configured to compare the momentary contrast image with a reference contrast image, - wherein the reference contrast image corresponds to a shading of the backlight only by the shading element , and - in that the evaluation means are configured to determine a correction factor from the comparison and to take this correction factor into account for determining the real dimension of the material web , - wherein the real dimension corresponds to the actual width of the web at which the momentary contrast image was generated.
Hunting or sports weapon with a forestock attached to a receiver and a barrel , wherein the barrel with a cartridge chamber leads into a bolt and forms a breechblock for the cartridge to be fired there, wherein a magazine well for the introduction of a magazine is arranged on or in the receiver , and on the receiver a trigger unit , wherein a buttstock is connected to the receiver , characterised in that the magazine is arranged in a swivel unit which can be swung down in a horizontal axis and is integrated at least partly in the buttstock .
A martensitic stainless steel seamless tube for oil country tubular goods possessing both of high strength of yield strength YS of 655 MPa or more and excellent low-temperature toughness in which a fracture transition temperature vTrs in a Charpy impact test is -40°C or below, wherein the seamless tube has the composition which contains, by mass%, 0.003% or more and 0.020% or less C, 1.0% or less Si, 0.020% or less P, 0.010% or less S, 0.10% or less Al, 10 to 14% Cr, 3% or less Ni, 0.06 to 0.2% Nb, 0.05% or less N, 0.1 to 2.0% Mn, at least one or two kinds, as optional elements, selected from 2.0% or less Cu, and 2.0% or less Mo, at least one kind, two or more kinds, as optional elements, selected from 0.20% or less V, 0.10% or less Ti and 0.005% or less B, and Fe and unavoidable impurities as a balance, and has the structure where a precipitated Nb quantity is 0.020% or more in terms of Nb.
Apparatus for electrophysiological studies, the apparatus comprising: at least one output channel ; a plurality of detection channels ; and control means , wherein the at least one output channel includes a stimulation channel , the control means is arranged to provide a stimulation signal to the stimulation channel and to process detection signals from the detection channels thereby to identify ectopy events in the detection signals, the detection channels include an atrial channel and at least one reference channel , and characterized in that the control means is arranged to process the detection signal from the at least one reference channel to identify ventricular activation events, thereby to distinguish between ventricular activation events and ectopy events in the detection signal from the atrial channel . at least one output channel ; a plurality of detection channels ; and control means , wherein the at least one output channel includes a stimulation channel , the control means is arranged to provide a stimulation signal to the stimulation channel and to process detection signals from the detection channels thereby to identify ectopy events in the detection signals, the detection channels include an atrial channel and at least one reference channel , and characterized in that the control means is arranged to process the detection signal from the at least one reference channel to identify ventricular activation events, thereby to distinguish between ventricular activation events and ectopy events in the detection signal from the atrial channel .