mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a pneumatic tyre with a tyre carcass and at least one tyre bead having a flipper strip, comprising the following method steps: - a first positioning step, comprising positioning a carcass fabric blank on a carcass drum having a drum contour , - a second positioning step, following the first positioning step and comprising positioning the flipper strip on the carcass fabric blank , - a ply turning-up step, following the second positioning step and comprising turning up a turn-up portion of the carcass fabric blank around the flipper strip , wherein, after the second positioning step and before the ply turning-up step, a forming step is carried out, in which the flipper strip is pressed by means of a forming force of at least one fluidically actuable forming device against the carcass fabric blank positioned on the carcass drum , and is thereby formed to the shape of the drum contour , characterized in that the fluidically actuable forming device has a first pressurizable and expandable bladder , which in the forming step forms the flipper strip onto the carcass fabric blank with a first component of the forming force as pressure in the axial direction of the carcass drum , and has a second pressurizable and expandable bladder , which in the forming step forms the flipper strip onto the carcass fabric blank with a second component of the forming force as pressure in the radial direction of the carcass drum . - a first positioning step, comprising positioning a carcass fabric blank on a carcass drum having a drum contour , - a second positioning step, following the first positioning step and comprising positioning the flipper strip on the carcass fabric blank , - a ply turning-up step, following the second positioning step and comprising turning up a turn-up portion of the carcass fabric blank around the flipper strip , wherein, after the second positioning step and before the ply turning-up step, a forming step is carried out, in which the flipper strip is pressed by means of a forming force of at least one fluidically actuable forming device against the carcass fabric blank positioned on the carcass drum , and is thereby formed to the shape of the drum contour , characterized in that the fluidically actuable forming device has a first pressurizable and expandable bladder , which in the forming step forms the flipper strip onto the carcass fabric blank with a first component of the forming force as pressure in the axial direction of the carcass drum , and has a second pressurizable and expandable bladder , which in the forming step forms the flipper strip onto the carcass fabric blank with a second component of the forming force as pressure in the radial direction of the carcass drum .
Solution comprising: - 1-25 wt% of at least one dye having a structure according to one of the following formulae wherein ▪ Y is -NO 2 or -SO 2 CH 3 ▪ R 1 and R 2 are independently selected from -C x H 2x+1 , -C x H 2x -C≡N, - C x H 2x -OH, -C x H 2x -O-C(=O)-O-C x H 2x+1 , -C x H 2x -O-C(=O)-C x H 2x+1 , and - C x H 2x -C(=O)-O-C x H 2x+1 , x being an integer in the range 1-5, ▪ R 3 is selected from H, Cl, Br, -NO 2 ,-OH, and -C=N, ▪ R 4 and R 6 are independently selected from H, Cl, Br, -NO 2 ,-OH, and - C=N, or may together form an aromatic or aliphatic ring, ▪ n is an integer in the range 0-3, ▪ each R 5 is independently selected from alkyl groups, alkoxy groups, halogens, amide groups, and sulphonamide groups, - 75-99 wt% of a solvent mixture, said solvent mixture comprising cyclopentanone and dimethylsulphoxide in a weight ratio 60:40 -95:5. - 1-25 wt% of at least one dye having a structure according to one of the following formulae wherein ▪ Y is -NO 2 or -SO 2 CH 3 ▪ R 1 and R 2 are independently selected from -C x H 2x+1 , -C x H 2x -C≡N, - C x H 2x -OH, -C x H 2x -O-C(=O)-O-C x H 2x+1 , -C x H 2x -O-C(=O)-C x H 2x+1 , and - C x H 2x -C(=O)-O-C x H 2x+1 , x being an integer in the range 1-5, ▪ R 3 is selected from H, Cl, Br, -NO 2 ,-OH, and -C=N, ▪ R 4 and R 6 are independently selected from H, Cl, Br, -NO 2 ,-OH, and - C=N, or may together form an aromatic or aliphatic ring, ▪ n is an integer in the range 0-3, ▪ each R 5 is independently selected from alkyl groups, alkoxy groups, halogens, amide groups, and sulphonamide groups, ▪ Y is -NO 2 or -SO 2 CH 3 ▪ R 1 and R 2 are independently selected from -C x H 2x+1 , -C x H 2x -C≡N, - C x H 2x -OH, -C x H 2x -O-C(=O)-O-C x H 2x+1 , -C x H 2x -O-C(=O)-C x H 2x+1 , and - C x H 2x -C(=O)-O-C x H 2x+1 , x being an integer in the range 1-5, ▪ R 3 is selected from H, Cl, Br, -NO 2 ,-OH, and -C=N, ▪ R 4 and R 6 are independently selected from H, Cl, Br, -NO 2 ,-OH, and - C=N, or may together form an aromatic or aliphatic ring, ▪ n is an integer in the range 0-3, ▪ each R 5 is independently selected from alkyl groups, alkoxy groups, halogens, amide groups, and sulphonamide groups, - 75-99 wt% of a solvent mixture, said solvent mixture comprising cyclopentanone and dimethylsulphoxide in a weight ratio 60:40 -95:5.
A computer-implemented method for an x-ray mammography system comprising: evaluating, via vision sensing using one or more cameras coupled to the x-ray mammography system , one or more of a patient position of a patient , a partial view of the patient , and a breast anatomy of the patient ; detecting one or more of a patient positioning error and a breast positioning error based on the evaluation; providing real-time feedback to a user based on the detection via a user interface of the mammography system ; and before compressing a patient breast, evaluating, via the vision sensing using the one or more cameras , a patient morphology and a breast morphology of the patient ; identifying a preferred compression paddle based on the patient morphology and the breast morphology; and indicating the preferred compression paddle on the user interface . evaluating, via vision sensing using one or more cameras coupled to the x-ray mammography system , one or more of a patient position of a patient , a partial view of the patient , and a breast anatomy of the patient ; detecting one or more of a patient positioning error and a breast positioning error based on the evaluation; providing real-time feedback to a user based on the detection via a user interface of the mammography system ; and before compressing a patient breast, evaluating, via the vision sensing using the one or more cameras , a patient morphology and a breast morphology of the patient ; identifying a preferred compression paddle based on the patient morphology and the breast morphology; and indicating the preferred compression paddle on the user interface .
An electroacoustic transducer comprising: a cathode having a plurality of discharge elements assembled into one or more axisymmetric arrays ; and an anode having a plurality of discharge elements assembled into one or more axisymmetric arrays ; wherein the cathode and the anode are separated by an inter-electrode space and respectively connected to a voltage source ; wherein the discharge elements of the cathode and anode are directed into the inter-electrode space ; and wherein each axisymmetric array of the cathode is arranged mirror symmetrically opposite a respective axisymmetric array of the anode to form an electrode pair, each electrode pair having an axis of symmetry extending through the geometric centers of the axisymmetric arrays in the pair. a cathode having a plurality of discharge elements assembled into one or more axisymmetric arrays ; and an anode having a plurality of discharge elements assembled into one or more axisymmetric arrays ; wherein the cathode and the anode are separated by an inter-electrode space and respectively connected to a voltage source ; wherein the discharge elements of the cathode and anode are directed into the inter-electrode space ; and wherein each axisymmetric array of the cathode is arranged mirror symmetrically opposite a respective axisymmetric array of the anode to form an electrode pair, each electrode pair having an axis of symmetry extending through the geometric centers of the axisymmetric arrays in the pair.
Support apparatus for a sliding door , the support apparatus having a carriage for suspension in a guide track and a securing device with a locking element , wherein the locking element in a securing position prevents the support apparatus and/or the carriage from being lifted out of the guide track , wherein the locking element automatically assumes the securing position after the support apparatus is suspended in the guide track and/or wherein the locking element is linearly movable and/or displaceable into and/or out of the securing position , characterized in that the support apparatus has a securing element which is visible in the installed state and is in the form of a cover or cap and which, in the installed state, limits a movement of the locking element by means of a mechanical blocking, as a result of which an unintentional movement of the locking element is prevented, and in that the securing element is attachable to the support apparatus in a force-fitting and/or form-fitting manner exclusively in the securing position . wherein the locking element in a securing position prevents the support apparatus and/or the carriage from being lifted out of the guide track , wherein the locking element automatically assumes the securing position after the support apparatus is suspended in the guide track and/or wherein the locking element is linearly movable and/or displaceable into and/or out of the securing position , characterized in that the support apparatus has a securing element which is visible in the installed state and is in the form of a cover or cap and which, in the installed state, limits a movement of the locking element by means of a mechanical blocking, as a result of which an unintentional movement of the locking element is prevented, and in that the securing element is attachable to the support apparatus in a force-fitting and/or form-fitting manner exclusively in the securing position .
A method of manufacturing a nano membrane structure, the method comprising: preparing a temporary structure having a substrate in which a through-hole is formed in a central portion and a nano membrane comprising silicon nitride (SiN) and that covers the through-hole on the substrate and comprising a central area formed on the through-hole and a peripheral area formed on the substrate; preparing an insulating support member comprising at least one of silicon and a compound containing silicon and in which a micropore is formed in a central portion; forming a complex structure by performing a hydrophilic surface processing of a surface of the nano membrane and one surface of the insulating support member and by bonding the temporary structure and the insulating support member , so that at least a portion of a central area of the nano membrane and the micropore face each other; and removing the substrate from the complex structure . preparing a temporary structure having a substrate in which a through-hole is formed in a central portion and a nano membrane comprising silicon nitride (SiN) and that covers the through-hole on the substrate and comprising a central area formed on the through-hole and a peripheral area formed on the substrate; preparing an insulating support member comprising at least one of silicon and a compound containing silicon and in which a micropore is formed in a central portion; forming a complex structure by performing a hydrophilic surface processing of a surface of the nano membrane and one surface of the insulating support member and by bonding the temporary structure and the insulating support member , so that at least a portion of a central area of the nano membrane and the micropore face each other; and removing the substrate from the complex structure .
A signal processing method, comprising: determining (S210), by a terminal device, a Quasi-Co-Location identifier, QCL ID, corresponding to a first port set for a first downlink signal; determining (S220), by the terminal device, a second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID; and processing (S230), by the terminal device, signals on the first port set for the first downlink signal based on QCL information obtained from the second downlink signal; characterized in that , the QCL ID is beam ID, and wherein determining, by the terminal device, the second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID, comprises: determining, by the terminal device, a synchronization signal, SS, block containing the beam ID as the second downlink signal in QCL with the first port set for the first downlink signal, each signal in the SS block containing the beam ID. determining (S210), by a terminal device, a Quasi-Co-Location identifier, QCL ID, corresponding to a first port set for a first downlink signal; determining (S220), by the terminal device, a second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID; and processing (S230), by the terminal device, signals on the first port set for the first downlink signal based on QCL information obtained from the second downlink signal; characterized in that , the QCL ID is beam ID, and wherein determining, by the terminal device, the second downlink signal in QCL with the first port set for the first downlink signal based on the QCL ID, comprises: determining, by the terminal device, a synchronization signal, SS, block containing the beam ID as the second downlink signal in QCL with the first port set for the first downlink signal, each signal in the SS block containing the beam ID.
Spark plug comprising: - an insulator , - a housing with a sealing surface , and - an outer sealing ring which rests against the sealing surface and is designed to secure and seal off the spark plug at a cylinder head bore, wherein the sealing surface is arranged on a casing region of the housing provided perpendicularly to the axial direction (X-X) of the spark plug, - wherein the sealing surface has a large number of recesses , - characterized in that a thickness (D) of the sealing ring in the axial direction (X-X) of the spark plug is greater than a depth (T) of the recesses in the axial direction (X-X) of the spark plug, and in that an external thread in the form of an M10 or M8 metric thread is provided on the housing. - an insulator , - a housing with a sealing surface , and - an outer sealing ring which rests against the sealing surface and is designed to secure and seal off the spark plug at a cylinder head bore, wherein the sealing surface is arranged on a casing region of the housing provided perpendicularly to the axial direction (X-X) of the spark plug, - wherein the sealing surface has a large number of recesses , - characterized in that a thickness (D) of the sealing ring in the axial direction (X-X) of the spark plug is greater than a depth (T) of the recesses in the axial direction (X-X) of the spark plug, and in that an external thread in the form of an M10 or M8 metric thread is provided on the housing.
One-piece mould bottom intended for a mould for the manufacture of containers by blow moulding or stretch blow moulding from preforms made of plastic, this mould bottom comprising a moulding wall having a moulding surface in relief which is the negative of at least part of a container bottom, this mould bottom being characterized in that it comprises a cavity included in the mould bottom , this cavity being bounded by a surface envelope entirely defined by the mould bottom and including an internal surface of the moulding wall , this being opposite the moulding surface and matching the relief thereof, and a rear surface facing the internal surface , the mould bottom being provided with at least one inlet opening and at least one outlet opening for a heat transfer fluid to flow in the cavity .
A manufacturing method of a semiconductor element comprising a semiconductor region including silicon, an electrode including aluminum, and a diffusion barrier layer including germanium and silicon between the semiconductor region and the electrode; wherein the diffusion barrier layer and the electrode are formed by the heat treatment of an aluminum alloy film containing 0.1 atomic percent or more and 3 atomic percent or less of germanium, an amount of germanium contained in the diffusion barrier layer is 20 atomic percent or more and 50 atomic percent or less, a ratio of the amount of silicon to the amount of germanium in the diffusion barrier layer is 0.3 or more and 3.0 or less, and a thickness of the diffusion barrier layer is 1 nm or more and 5 nm or less, the manufacturing method comprising; a process step to form the aluminum alloy comprising 0.1 atomic percent or more and 3 atomic percent or less of germanium on a surface of a semiconductor region containing silicon, and a process step to conduct a heat treatment of the semiconductor region on which the aluminum alloy is formed, wherein the temperature of the heat treatment is 450°C or higher and the duration of the heat treatment is 5 minutes or longer.
A process for preparing C 2 to C 3 hydrocarbons comprising: introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings having a size less than or equal to 0.51 nm (5.1 Ǻ) and a cage defining ring size less than or equal to 0.745 nm (7.45 Ǻ), wherein: a C 2 /C 3 carbon molar ratio of the product stream is greater than or equal to 0.7. introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings having a size less than or equal to 0.51 nm (5.1 Ǻ) and a cage defining ring size less than or equal to 0.745 nm (7.45 Ǻ), wherein: a C 2 /C 3 carbon molar ratio of the product stream is greater than or equal to 0.7. a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings having a size less than or equal to 0.51 nm (5.1 Ǻ) and a cage defining ring size less than or equal to 0.745 nm (7.45 Ǻ), wherein: a C 2 /C 3 carbon molar ratio of the product stream is greater than or equal to 0.7.
An oral dosage form comprising immediate release phentermine and controlled release topiramate for use in a method of delaying the progression from prediabetes to type 2 diabetes in a subject, wherein the method comprises: (a) identifying a subject at risk for developing type 2 diabetes comprising determining that the subject has at least one of the following: (i) HbAlc levels that are between 5.7% and 6.4%; (ii) plasma glucose levels between 7.8 mmol/L and 11mmol/L; (iii) blood glucose levels between 6.1 mmol/L and 7.0mmol/L; and (b) administering the oral dosage form to the subject (a) identifying a subject at risk for developing type 2 diabetes comprising determining that the subject has at least one of the following: (i) HbAlc levels that are between 5.7% and 6.4%; (ii) plasma glucose levels between 7.8 mmol/L and 11mmol/L; (iii) blood glucose levels between 6.1 mmol/L and 7.0mmol/L; and (i) HbAlc levels that are between 5.7% and 6.4%; (ii) plasma glucose levels between 7.8 mmol/L and 11mmol/L; (iii) blood glucose levels between 6.1 mmol/L and 7.0mmol/L; and (b) administering the oral dosage form to the subject
A switching element drive device comprising: a current sensor configured to measure a load current flowing through a load (L); a voltage sensor configured to measure an input voltage inputted from a power supply (E); and a control part configured to output a command value of a gate drive voltage to a gate drive voltage supply part , the gate drive voltage supply part being configured to supply the gate drive voltage for driving a switching element (S) disposed between the power supply (E) and the load (L), wherein the control part is further configured to determine the command value of the gate drive voltage based on the load current and the input voltage; and characterized in that the command value of the gate drive voltage is a sum of a product of a first coefficient and the load current and a product of a second coefficient and the input voltage; and at least one of the first coefficient or the second coefficient is a function of the load current and/or the input voltage. a current sensor configured to measure a load current flowing through a load (L); a voltage sensor configured to measure an input voltage inputted from a power supply (E); and a control part configured to output a command value of a gate drive voltage to a gate drive voltage supply part , the gate drive voltage supply part being configured to supply the gate drive voltage for driving a switching element (S) disposed between the power supply (E) and the load (L), wherein the control part is further configured to determine the command value of the gate drive voltage based on the load current and the input voltage; and characterized in that the command value of the gate drive voltage is a sum of a product of a first coefficient and the load current and a product of a second coefficient and the input voltage; and at least one of the first coefficient or the second coefficient is a function of the load current and/or the input voltage.