mhurhangee/patent-ind-claim-en huggingface dataset:
A steel sheet of a composition comprising, in mass%, C: 0.05 to 0.25%, Si: 0.005% or more and 1.0% or less, Mn: 2.0 to 4.0%, P: 0.100% or less, S: 0.02% or less, Al: 1.0% or less, N: 0.001 to 0.015%, one or more selected from the group consisting of Ti: 0.003 to 0.100%, Nb: 0.003 to 0.100%, Mo: 0.005 to 0.500%, optionally at least one selected from the group consisting of Cr: 0.005 to 2.000%, V: 0.005 to 2.000%, Cu: 0.005 to 2.000%, Ni: 0.005 to 2.000%, B: 0.0001 to 0.0050%, Ca: 0.0001 to 0.0050%, REM: 0.0001 to 0.0050%, Sb: 0.0010 to 0.1000%, and Sn: 0.0010 to 0.5000%, and the balance being Fe and unavoidable impurities, wherein polygonal ferrite is 0 to 60%, and a total of martensite, bainite, and residual austenite is 40 to 100% in terms of an area ratio in a range of 20 μm in a sheet thickness direction from a steel sheet surface, wherein the content of Mn in martensite present in the range of 20 μm in the sheet thickness direction from the steel sheet surface ([Mn] SM ) and the content of Mn at a location, in the bulk, of 1/4-thickness of the steel sheet toward a center in the sheet thickness direction from the steel sheet surface ([Mn] B ) satisfies [Mn] SM /[Mn] B ≤ 1.5, wherein at a location 300 μm in the sheet thickness direction from the steel sheet surface, the martensite has an area ratio of 40 to 80% and the polygonal ferrite and the bainite have an average crystal grain size of less than 15 μm, wherein the tensile strength is 1180 MPa or more, wherein a JIS 5 tensile test piece was collected in a direction orthogonal to the rolling direction, and subjected to a JIS Z 2241 tensile test at a strain rate of 10 -3 m/s and the sample was collected according to JIS Z 2201 and the tensile test was executed according to JIS Z 2241, and wherein the R/t value is 3.5 or less, wherein a strip-shaped test piece having 30 mm in width and 100 mm in length was collected and subjected to a flexure test in which the test piece was bent in a direction parallel to the rolling direction by performing a V-bend test at an angle of 90° under the conditions of a stroke speed of 500 mm/s, a press load of 10 ton, and a press-retention time of 5 seconds, and by observing the ridge line at the bending position using a magnifier at a magnification of 10 times, the minimum bending radius, in mm, at which cracks of 0.5 mm or more could not recognized was determined, and R/t was calculated by dividing the minimum bending radius by the sheet thickness, in mm.
Seat bench arrangement for a motorcycle , with - a fuel cell , - a tank mounting which is configured to connect the fuel cell to a vehicle structure , and - a seat bench for receiving a motorcycle user, the seat bench being connected to the tank mounting , with the result that the tank mounting forms a mounting for supporting the seat bench , the tank mounting comprising a first connecting portion , which is configured for connection to the fuel cell , and a second connecting portion , the seat bench being connected to the second connecting portion of the tank mounting by means of a third connecting portion which is assigned to the seat bench , characterized in that the first connecting portion is connected in a positively locking manner to the fuel cell , the tank mounting having, in the region of the first connecting portion , recesses and/or undercuts, into which the fuel cell extends in order to form the positively locking connection in the case of a production of the fuel cell using a below-moulding process. - a fuel cell , - a tank mounting which is configured to connect the fuel cell to a vehicle structure , and - a seat bench for receiving a motorcycle user, the seat bench being connected to the tank mounting , with the result that the tank mounting forms a mounting for supporting the seat bench , the tank mounting comprising a first connecting portion , which is configured for connection to the fuel cell , and a second connecting portion , the seat bench being connected to the second connecting portion of the tank mounting by means of a third connecting portion which is assigned to the seat bench , characterized in that the first connecting portion is connected in a positively locking manner to the fuel cell , the tank mounting having, in the region of the first connecting portion , recesses and/or undercuts, into which the fuel cell extends in order to form the positively locking connection in the case of a production of the fuel cell using a below-moulding process.
Gas valve unit for adjusting gas volume flows to a dual circuit gas burner of a gas appliance, in particular of a gas cooking appliance, wherein the gas valve unit has one gas inlet and two gas outlets , wherein the gas volume flow fed to the one first gas outlet can be adjusted in multiple stages, wherein the gas volume flow fed to the one second gas outlet can be adjusted in multiple stages, characterised in that the gas valve unit has at least two first on-off valves for adjusting the gas volume flow fed to the first gas outlet and one first throttle section with at least two first throttle points , which are arranged in series and which comprise an increasing flow cross-section in a gas flow direction in the first throttle section and the gas valve unit has at least two second on-off valves for adjusting the gas volume flow fed to the second gas outlet and a second throttle section with at least two second throttle points , which are arranged in series and which comprise an increasing flow cross-section in a gas flow direction in the second throttle section, that at least some of the on-off valves are switchable by means of magnetic force by way of the positioning of at least one magnetically active body and at least one first on-off valve (15.3) is switchable by means of a force acting mechanically on this first on-off valve (15.3), that a movement device is provided for moving the magnetically active body relative to the on-off valves and that the movement device comprises a mechanical actuating device for the mechanically switchable first on-off valve (15.3).
Housing of an electronic device comprising an open housing portion into which a plug connector is insertable, and at least one coding pin , wherein the coding pin can be brought from a non-coding position into a coding position and vice versa, characterised by at least one printed circuit board housed in the housing and electrically connectable to the connector , wherein the code pin has a first shoulder disposed laterally on the code pin , and the first shoulder engages a projection on the open housing portion when the code pin is in the coding position , and wherein the housing together with the open housing portion and the at least one coding pin is manufactured in one piece by means of injection molding so that the at least one coding pin is integrated in the open housing portion .
A working vehicle , comprising: an exhaust pipeline that includes an exhaust gas purification device ; and a cover , wherein the cover has a plurality of vent holes , the working vehicle being characterized in that the cover is provided to cover at least a peripheral surface of the exhaust gas purification device of the exhaust pipeline which is provided to stand on a mounting surface of a supporting member that extends from a side of a running vehicle body and the cover has an opening in a bottom thereof that discharges a foreign substance introduced into an inside of the cover to an outside of the cover , and the plurality of vent holes have a diameter less than that of the opening and are formed above the opening . an exhaust pipeline that includes an exhaust gas purification device ; and a cover , wherein the cover has a plurality of vent holes , the working vehicle being characterized in that the cover is provided to cover at least a peripheral surface of the exhaust gas purification device of the exhaust pipeline which is provided to stand on a mounting surface of a supporting member that extends from a side of a running vehicle body and the cover has an opening in a bottom thereof that discharges a foreign substance introduced into an inside of the cover to an outside of the cover , and the plurality of vent holes have a diameter less than that of the opening and are formed above the opening .
A rotary valve for steering a drill bit , the rotary valve comprising: a valve housing ; a manifold mounted to the valve housing , with the manifold having multiple flow paths; a rotary actuator rotatably mounted within the valve housing , with the rotary actuator having an end comprising an electrically conductive silicon carbide diamond (ScD) and a recess formed through the end by an electrical milling process, and the end having a first engagement surface, the end brazed to a support structure with a braze material having a melting temperature greater than 700 degrees Celsius and less than 1200 degrees Celsius; and a valve seat coupled to the manifold, the valve seat having a second engagement surface that sealingly engages the first engagement surface; a filter , positioned about an outer surface of the housing to filter drilling mud that is received into the rotary valve and a bypass port through the manifold , wherein the valve seat further comprises ports that are in fluid communication with respective ones of the flow paths in the manifold ; the rotary actuator further comprising a gap that selectively aligns and miss-aligns with respective ones of the valve seat ports as the rotary actuator rotates relative to the valve seat, and inlet ports through a wall of the valve housing that allows pressurized fluid to enter the rotary valve through the filter and the inlet ports , and wherein the manifold allows a remaining portion of the pressurized fluid to travel through the bypass port to continue on to the drill bit . a valve housing ; a manifold mounted to the valve housing , with the manifold having multiple flow paths; a rotary actuator rotatably mounted within the valve housing , with the rotary actuator having an end comprising an electrically conductive silicon carbide diamond (ScD) and a recess formed through the end by an electrical milling process, and the end having a first engagement surface, the end brazed to a support structure with a braze material having a melting temperature greater than 700 degrees Celsius and less than 1200 degrees Celsius; and a valve seat coupled to the manifold, the valve seat having a second engagement surface that sealingly engages the first engagement surface; a filter , positioned about an outer surface of the housing to filter drilling mud that is received into the rotary valve and a bypass port through the manifold , wherein the valve seat further comprises ports that are in fluid communication with respective ones of the flow paths in the manifold ; the rotary actuator further comprising a gap that selectively aligns and miss-aligns with respective ones of the valve seat ports as the rotary actuator rotates relative to the valve seat, and inlet ports through a wall of the valve housing that allows pressurized fluid to enter the rotary valve through the filter and the inlet ports , and wherein the manifold allows a remaining portion of the pressurized fluid to travel through the bypass port to continue on to the drill bit .
A computer-implemented method for generating a synthetic elastography image, the method comprising the steps of a) receiving B-mode ultrasound images of a region of interest at the frame rate of B-mode ultrasound; b) generating synthetic elastography images of the region of interest at the frame rate of B-mode ultrasound by applying a trained artificial neural network to the B-mode ultrasound images , wherein the artificial neural network has been trained on the basis of machine learning using elastography images generated by an elastography technique as training data. a) receiving B-mode ultrasound images of a region of interest at the frame rate of B-mode ultrasound; b) generating synthetic elastography images of the region of interest at the frame rate of B-mode ultrasound by applying a trained artificial neural network to the B-mode ultrasound images ,
Procedure to detect a complete or partial blockage of a measuring tube (A, B) of a Coriolis flowmeter , which can be inserted into a pipe and which features a vibronic-type transducer with at least two measuring tubes (A, B) switched in parallel in terms of flow, wherein medium flows through the Coriolis flowmeter and wherein a total mass flow of the medium through the Coriolis flowmeter is determined by the Coriolis flowmeter as part of a Coriolis mass flow measurement, wherein said procedure is characterized by the following steps: A) Measurement of a partial flow occurring in a subsection of the measuring tubes (A, B); B) Comparison of a value for the partial flow, resulting from this measurement, with a reference value to be expected for this subsection, wherein said reference value is determined from the total mass flow determined as part of the Coriolis mass flow measurement; and C) Detection of a blockage of at least one of the measuring tubes (A, B) of the transducer if the value of the partial flow deviates from the reference value by more than a limit value. A) Measurement of a partial flow occurring in a subsection of the measuring tubes (A, B); B) Comparison of a value for the partial flow, resulting from this measurement, with a reference value to be expected for this subsection, wherein said reference value is determined from the total mass flow determined as part of the Coriolis mass flow measurement; and C) Detection of a blockage of at least one of the measuring tubes (A, B) of the transducer if the value of the partial flow deviates from the reference value by more than a limit value.
A magnetic detection system for detecting a magnetic marker for guiding a surgeon to a region of interest during a surgical procedure, the magnetic detection system comprising: a driving unit configured generate a driving magnetic field based on a corresponding driving signal which has a cyclic pattern comprising two or more successive periods of time (T HIGH , T LOW ) in which the driving signal has a substantially constant, non-zero amplitude (A HIGH , A LOW ) during each of the successive periods of time, and the amplitude (A HIGH ) of the driving signal during at least one of the periods of time (T HIGH ) is different from the amplitude (A LOW ) of the driving signal during at least one other of the periods of time (T LOW ); a magnetic field sensor configured to detect a response magnetic field; a processor configured to select, based on the response magnetic field, at least one signal from a plurality of sensed signals, each of which corresponds to the response magnetic field detected during a respective one of the successive periods of time (T HIGH , T LOW ) of each cycle; determine a detection signal corresponding to the magnetic marker using the at least one selected signal; and generate an output signal based on a strength of the detection signal. a driving unit configured generate a driving magnetic field based on a corresponding driving signal which has a cyclic pattern comprising two or more successive periods of time (T HIGH , T LOW ) in which the driving signal has a substantially constant, non-zero amplitude (A HIGH , A LOW ) during each of the successive periods of time, and the amplitude (A HIGH ) of the driving signal during at least one of the periods of time (T HIGH ) is different from the amplitude (A LOW ) of the driving signal during at least one other of the periods of time (T LOW ); a magnetic field sensor configured to detect a response magnetic field; a processor configured to select, based on the response magnetic field, at least one signal from a plurality of sensed signals, each of which corresponds to the response magnetic field detected during a respective one of the successive periods of time (T HIGH , T LOW ) of each cycle; determine a detection signal corresponding to the magnetic marker using the at least one selected signal; and generate an output signal based on a strength of the detection signal.
Method for producing a household appliance component (13 to 18), in which the component (13 to 18) is printed using an inkjet method, characterised in that a barrier layer is applied as a shine-through protection between a surface of the household appliance component (13 to 18) and at least one inkjet layer, wherein a transparent and UV-resistant top layer is applied to the at least one inkjet layer, wherein the top layer is formed by transparent and UV-resistant ink.
Joint for joining ends of at least two fiber webs together, in which the joint is configured to be formed of at least one cut provided to penetrate through the ends of the fiber webs in an overlapping position, which cut has at least one side part and from the side part extending at least one substantially straight part and which cut forms at least one flap , which is configured remain attached to the fiber webs attached by at least one folding line , which folding line of the flap is substantially aligned with the direction (S) of the movement of the fiber webs , characterized in that the cut has a corner form in the direction (S) of the movement of the fiber webs formed in meeting location of a side part of the cut and the folding line configured to form a carrying part of the joint.
An image processing method, wherein the method comprises: receiving an image operation instruction, wherein the image operation instruction comprises performing at least one of a rotation operation or a zoom operation; performing an operation on an image according to the image operation instruction, wherein the image is overlaid with an intelligent analysis rule, wherein the intelligent analysis rule comprises a tripwire rule and a reference object for the tripwire rule or a geometric region rule and a reference object for the geometric region rule; and calculating coordinates of the intelligent analysis rule in a pre-established coordinate system after the operation; displaying , according to the coordinates of the intelligent analysis rule, the intelligent analysis rule on the image on which the operation has been performed, so that a relative position of the intelligent analysis rule relative to the reference object remains unchanged before and after the operation; setting an effective condition for the intelligent analysis rule on the image; redisplaying the intelligent analysis rule on the image when the effective condition is satisfied. receiving an image operation instruction, wherein the image operation instruction comprises performing at least one of a rotation operation or a zoom operation; performing an operation on an image according to the image operation instruction, wherein the image is overlaid with an intelligent analysis rule, wherein the intelligent analysis rule comprises a tripwire rule and a reference object for the tripwire rule or a geometric region rule and a reference object for the geometric region rule; and calculating coordinates of the intelligent analysis rule in a pre-established coordinate system after the operation; displaying , according to the coordinates of the intelligent analysis rule, the intelligent analysis rule on the image on which the operation has been performed, so that a relative position of the intelligent analysis rule relative to the reference object remains unchanged before and after the operation; setting an effective condition for the intelligent analysis rule on the image; redisplaying the intelligent analysis rule on the image when the effective condition is satisfied.
A ureteral stent for placement in a bladder , a kidney and a ureteral passageway connecting the bladder and the kidney , the ureteral stent including: a solid bladder portion in the form of a coil having first and second ends and being free of a lumen, the solid bladder portion being positionable in the bladder to prevent the bladder portion from migrating into the ureteral passageway ; a tubular kidney portion positionable in the kidney and the ureteral passageway and having first and second ends , the tubular kidney portion having a ureter portion configured to be positioned in the kidney and the ureteral passageway to place the ureteral passageway in an open state and a resilient fixing portion biased in an unrestrained position to secure the resilient fixing portion in the kidney , wherein the ureter portion includes an opening in a wall of the ureter portion near the second end of the kidney portion ; and a tether with first and second ends connecting the solid bladder portion and the ureter portion to allow the bladder portion to float in the bladder and to allow a ureter orifice connecting the ureteral passageway to the bladder to move between a compressed state and an uncompressed state, characterized in that the tether is received in the opening of the ureter portion such that the tether is looped through the opening in the wall of the ureter portion , and wherein the first and second ends of the tether are coupled to the second end of the solid bladder portion . a solid bladder portion in the form of a coil having first and second ends and being free of a lumen, the solid bladder portion being positionable in the bladder to prevent the bladder portion from migrating into the ureteral passageway ; a tubular kidney portion positionable in the kidney and the ureteral passageway and having first and second ends , the tubular kidney portion having a ureter portion configured to be positioned in the kidney and the ureteral passageway to place the ureteral passageway in an open state and a resilient fixing portion biased in an unrestrained position to secure the resilient fixing portion in the kidney , wherein the ureter portion includes an opening in a wall of the ureter portion near the second end of the kidney portion ; and a tether with first and second ends connecting the solid bladder portion and the ureter portion to allow the bladder portion to float in the bladder and to allow a ureter orifice connecting the ureteral passageway to the bladder to move between a compressed state and an uncompressed state, characterized in that the tether is received in the opening of the ureter portion such that the tether is looped through the opening in the wall of the ureter portion , and wherein the first and second ends of the tether are coupled to the second end of the solid bladder portion .
Alloyed steel, consisting of the following elements in percentage by weight: 0.25% ≤ C ≤ 0.35% 0.80% ≤ Cr ≤ 1.50% 0.50% ≤ Ni ≤ 1.50% 0.0010% ≤ B ≤ 0.0050% 0.010% ≤ Ti ≤ 0.060% 0.40 ≤ Mn ≤ 1.00% 0.0030% ≤ N ≤ 0.0150% and optionally at least one of the following elements in percentage by weight: Si ≤ 0.30% P ≤ 0.025% S ≤ 0.025% Cu ≤ 0.35% Al ≤ 0.050% Ca ≤ 0.0050% Bi ≤ 0.10% Pb ≤ 0.20% Te ≤ 0.020% Se ≤ 0.040% balanced with iron, the remaining elements being impurities resulting from the production thereof. 0.25% ≤ C ≤ 0.35% 0.80% ≤ Cr ≤ 1.50% 0.50% ≤ Ni ≤ 1.50% 0.0010% ≤ B ≤ 0.0050% 0.010% ≤ Ti ≤ 0.060% 0.40 ≤ Mn ≤ 1.00% 0.0030% ≤ N ≤ 0.0150% Si ≤ 0.30% P ≤ 0.025% S ≤ 0.025% Cu ≤ 0.35% Al ≤ 0.050% Ca ≤ 0.0050% Bi ≤ 0.10% Pb ≤ 0.20% Te ≤ 0.020% Se ≤ 0.040%