mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle state control apparatus, comprising: a vehicle entering/leaving detection unit being configured to detect being in a drive-through area ; and a control unit being configured to control a state of a vehicle in the drive-through area detected by the vehicle entering/leaving detection unit , and a riding state detection unit being configured to detect a riding state of the vehicle , wherein the riding state comprises information about how many passengers are sitting in the front seat or rear seat of the vehicle and whether the passenger is an adult or a child, wherein the control unit is configured to control the travelling state of the vehicle , corresponding to the riding state, and to stop the vehicle at at least one of an order window , a pick-up window , or a payment window, in particular at a position, corresponding to the riding state of the vehicle at the at least one window, as the travelling state of the vehicle . a vehicle entering/leaving detection unit being configured to detect being in a drive-through area ; and a control unit being configured to control a state of a vehicle in the drive-through area detected by the vehicle entering/leaving detection unit , and a riding state detection unit being configured to detect a riding state of the vehicle , wherein the riding state comprises information about how many passengers are sitting in the front seat or rear seat of the vehicle and whether the passenger is an adult or a child, wherein the control unit is configured to control the travelling state of the vehicle , corresponding to the riding state, and to stop the vehicle at at least one of an order window , a pick-up window , or a payment window, in particular at a position, corresponding to the riding state of the vehicle at the at least one window, as the travelling state of the vehicle .
A beverage comprising polymerized tea polyphenol at a content of 5 to 150 ppm, and RebD and/or RebM at a total content of 20 to 300 ppm, wherein a weight ratio B/A of a total content (B) of RebD and RebM to a content (A) of the tea polymerized polyphenol is 1.0 to 9.0. polymerized tea polyphenol at a content of 5 to 150 ppm, and RebD and/or RebM at a total content of 20 to 300 ppm, wherein
A method for fabricating a silica gel vibrating diaphragm, comprising: forming a composite material belt by using two layers of a base material and liquid silica gel in a calendering manner, wherein the liquid silica gel is between the two layers of the base material (S100); wholly hot-press molding the composite material belt by a vibrating diaphragm die holder, a temperature of the hot-press molding being higher than a vulcanization temperature of the liquid silica gel (S200); removing the two layers of the base material to obtain a whole sheet of silica gel vibrating diaphragm (S300); and blanking the whole sheet of silica gel vibrating diaphragm that has been removed of the two layers of the base material to fabricate a required silica gel vibrating diaphragm (S400). forming a composite material belt by using two layers of a base material and liquid silica gel in a calendering manner, wherein the liquid silica gel is between the two layers of the base material (S100); wholly hot-press molding the composite material belt by a vibrating diaphragm die holder, a temperature of the hot-press molding being higher than a vulcanization temperature of the liquid silica gel (S200); removing the two layers of the base material to obtain a whole sheet of silica gel vibrating diaphragm (S300); and blanking the whole sheet of silica gel vibrating diaphragm that has been removed of the two layers of the base material to fabricate a required silica gel vibrating diaphragm (S400).
Thermoplastic polyamide moulding composition containing or consisting of: (A) 15 to 45% by weight of at least one aliphatic polyamide having a C to N ratio of at least 10; (B) 55 to 85% by weight of at least one thermally conductive metal oxide selected from the group consisting of alumina, magnesium oxide, zinc oxide, aluminosilicate, zirconia, or mixtures thereof; (C) 0 to 5% by weight of additives; wherein the sum of the percentages by weight of (A) to (C) is 100%. (A) 15 to 45% by weight of at least one aliphatic polyamide having a C to N ratio of at least 10; (B) 55 to 85% by weight of at least one thermally conductive metal oxide selected from the group consisting of alumina, magnesium oxide, zinc oxide, aluminosilicate, zirconia, or mixtures thereof; (C) 0 to 5% by weight of additives;
Composition in the form of compacted particles, comprising at least 5 wt %, preferably at least 10 wt %, more preferably at least 15 wt %, of gelatin and/or collagen hydrolysate, wherein the compacted particles have a mean particle diameter of from 0.8 to 4.2 mm and a bulk weight of from 350 to 800 g/l, wherein the compacted particles are produced by compression of a fine-powdered starting material by application of a force from two opposite directions, and wherein the gelatin has an amorphous proportion of less than 25 %.
A lithography system comprising: - a radiation projection system for projecting radiation onto a substrate ; - a substrate transport system for loading and positioning the substrate to be processed in the path of the projected radiation; - a control system for controlling the substrate transport system to move the substrate; and - a resist characterization system arranged for determining whether a specific type of resist is suitable to be exposed by radiation within the lithography system. wherein the resist characterization system is arranged for: - exposing the resist on a surface of the substrate with one or more radiation beams ; - measuring a mass distribution of molecular fragments emitted from the resist; - using a growth rate model , based on earlier measurements of radiation induced deposition caused by known molecular fragments for different partial pressures; - predicting a growth rate of deposited molecular fragments on the basis of the growth rate model of molecular fragments and the measured mass distribution of molecular fragments, and the deriving of a partial pressure on the basis of the measured mass distribution of molecular fragments; and - comparing the predicted growth rate with a predetermined threshold growth rate, the threshold growth rate being related to a maximum allowable growth rate in the lithography system. - a radiation projection system for projecting radiation onto a substrate ; - a substrate transport system for loading and positioning the substrate to be processed in the path of the projected radiation; - a control system for controlling the substrate transport system to move the substrate; and - a resist characterization system arranged for determining whether a specific type of resist is suitable to be exposed by radiation within the lithography system. - exposing the resist on a surface of the substrate with one or more radiation beams ; - measuring a mass distribution of molecular fragments emitted from the resist; - using a growth rate model , based on earlier measurements of radiation induced deposition caused by known molecular fragments for different partial pressures; - predicting a growth rate of deposited molecular fragments on the basis of the growth rate model of molecular fragments and the measured mass distribution of molecular fragments, and the deriving of a partial pressure on the basis of the measured mass distribution of molecular fragments; and - comparing the predicted growth rate with a predetermined threshold growth rate, the threshold growth rate being related to a maximum allowable growth rate in the lithography system.
A milling device for manufacturing antenna structures out of a metal layer (M) laminated on an insulating backing (T) with - a controlled milling cutter and with - a controller (ECU) configured for monitoring and controlling the milling operation of the milling cutter interacting with a die , wherein - the milling cutter is adapted to mill at least one antenna structure (AS) out of the metal layer (M) on a flexible product (W) having the backing (T) and the metal layer (M), while the product (W) is guided through a milling gap (FS) between the milling cutter and the die , the device comprising: a light emitter/receiver configured for outputting and receiving a light strip crossing the milling gap (FS) in or transversely to a running direction (R) of the product (W), wherein a transverse dimension of the light strip is characteristic of the width of the milling gap between the milling cutter and the die , and wherein the light receiver is adapted to output a signal (S1...S3) reproducing the width of the milling gap (FS) to the controller (ECU), and wherein the controller (ECU) is adapted to output an adjusting signal (P1, P2) at least to an adjusting drive that influences the width of the milling gap between the milling cutter and the die . - a controlled milling cutter and with - a controller (ECU) configured for monitoring and controlling the milling operation of the milling cutter interacting with a die , wherein - the milling cutter is adapted to mill at least one antenna structure (AS) out of the metal layer (M) on a flexible product (W) having the backing (T) and the metal layer (M), while the product (W) is guided through a milling gap (FS) between the milling cutter and the die , the device comprising: a light emitter/receiver configured for outputting and receiving a light strip crossing the milling gap (FS) in or transversely to a running direction (R) of the product (W), wherein a transverse dimension of the light strip is characteristic of the width of the milling gap between the milling cutter and the die , and wherein the light receiver is adapted to output a signal (S1...S3) reproducing the width of the milling gap (FS) to the controller (ECU), and wherein the controller (ECU) is adapted to output an adjusting signal (P1, P2) at least to an adjusting drive that influences the width of the milling gap between the milling cutter and the die .
A composition for use in treating a pathogenic virus infection in a patient in need thereof comprising one or more of syringic acid, trans-cinnamic acid, trans-ferulic acid, salts thereof, esters thereof, or combinations thereof, wherein the pathogenic virus is human Papillomavirus (HPV).
A method comprising: receiving at a source serving node an identifier associated with a group of random access channel preambles for allocation by the source serving node, the group of random access channel preambles having been reserved at a serving node from available random access channel preambles for the serving node; allocating at least one from the group of random access channel preambles, in response to determining a handover from the source serving node to a target serving node ; and transmitting a message to the target serving node, the message comprising the at least one from the group of random access channel preambles. receiving at a source serving node an identifier associated with a group of random access channel preambles for allocation by the source serving node, the group of random access channel preambles having been reserved at a serving node from available random access channel preambles for the serving node; allocating at least one from the group of random access channel preambles, in response to determining a handover from the source serving node to a target serving node ; and transmitting a message to the target serving node, the message comprising the at least one from the group of random access channel preambles.
Method to control a hybrid powertrain in order to achieve reverse drive, wherein the hybrid powertrain comprises an internal combustion engine , a gearbox with an input shaft and an output shaft ; a first planetary gear , connected to the input shaft ; a second planetary gear , connected to the first planetary gear ; a first electrical machine , connected to the first planetary gear ; a second electrical machine , connected to the second planetary gear ; at least one gear pair , connected with the first planetary gear and the output shaft ; and at least one gear pair , connected with the second planetary gear and the output shaft , wherein the internal combustion engine is connected with the first planetary gear via the input shaft , comprising the steps: a) ensuring that moveable parts of the first planetary gear are connected with each other by means of a first coupling device , and that moveable parts of the second planetary gear are disconnected from each other by means of a second coupling device ; b) ensuring that the gear pair connected with the second planetary gear and the output shaft is connected, such that the gear pair in the connected state can transfer a rotational movement and torque between the second planetary gear and the output shaft , and ensuring that the gear pair connected with the first planetary gear and the output shaft is disconnected, such that the gear pair in the disconnected state cannot transfer a rotational movement or torque between the first planetary gear and the output shaft ; and c) controlling the second electrical machine , such that a negative torque is achieved at the output shaft . a) ensuring that moveable parts of the first planetary gear are connected with each other by means of a first coupling device , and that moveable parts of the second planetary gear are disconnected from each other by means of a second coupling device ; b) ensuring that the gear pair connected with the second planetary gear and the output shaft is connected, such that the gear pair in the connected state can transfer a rotational movement and torque between the second planetary gear and the output shaft , and ensuring that the gear pair connected with the first planetary gear and the output shaft is disconnected, such that the gear pair in the disconnected state cannot transfer a rotational movement or torque between the first planetary gear and the output shaft ; and c) controlling the second electrical machine , such that a negative torque is achieved at the output shaft .
Set of plates (21, 22; 40, 41) obtained by cutting from a block (4"', 35) made of metallic or composite material extending around a plane and having a length, a width and a thickness, the block comprising a first plate presenting an upper face and a second plate presenting a lower face, the lower face of the second plate presenting a surface having a shape complementary to the upper face of the first plate facing it more or less at a constant height, corresponding to the height of the line of cutting in the block (4"', 35), characterised in that the upper face of the first plate presents a surface having at least two lines of inflection parallel to the length or width of the block relative to said plane, and in that the dimension of the block, length or width, to which said at least two lines of inflection are parallel is greater than or equal to 600 mm.
An illuminant for a vehicle lamp, with an excitation light source and with a retroreflector , wherein the retroreflector comprises a retroreflector body of transparent synthetic material, wherein the excitation light source at least partially irradiates the excitation light emitted by the excitation light source into the retroreflector body , wherein a fluorescent material is introduced into the transparent synthetic material of the retroreflector body , which fluorescent material, by radiation with excitation light emitted from the excitation light source , emits fluorescent light of a fluorescent light colour intended for the light function, characterised in that the retroreflector body is provided with a retroreflector geometry distant from the retroreflector body side facing toward the light to be reflected, which retroreflector geometry reverses light to be reflected entering into the retroreflector body from at least one direction, and causes the light to leave in a direction opposite to its entering, and wherein the illuminant comprises a colour filter at least for one electromagnetic spectrum wavelength corresponding to the excitation light colour, the colour filter being disposed in front of the retroreflector body as seen in the at least one direction from which light to be reflected enters into the retroreflector .
A quenched-tempered high-strength steel consisting of the following components by weight percentage: C:0.16-0.20%, Si: 0.10-0.30%, Mn: 0.80-1.60%, Cr: 0.20-0.70%, Mo: 0.10-0.45%, Ni: 0.10-0.50%, Nb: 0.010-0.030%, Ti: 0.010-0.030%, V: 0.010-0.050%, B: 0.0005-0.0030%, Al: 0.02-0.06%, Ca: 0.001-0.004%, N: 0.002-0.005%, P≤0.020%, S≤0.010%, O≤0.008%, the balance of Fe and unavoidable impurities, wherein the above elements meet the following relationships: Ceq 0.51-0.60%, Ceq=C+Mn/6+(Cr+Mo+V)/5+(Ni+Cu)/15;0.8%≤Mo+0.8Ni+0.4Cr+6V≤1.3%; 3.7≤Ti/N≤7.0; 1.0≤Ca/S≤3.0; wherein the quenched-tempered high-strength steel has a microstructure of tempered martensite; and wherein the quenched-tempered high-strength steel has a yield strength of 900-1080MPa, a tensile strength of 950-1200MPa, an elongation >10%, and an impact energy at -40°C >40J. Ceq 0.51-0.60%, Ceq=C+Mn/6+(Cr+Mo+V)/5+(Ni+Cu)/15;0.8%≤Mo+0.8Ni+0.4Cr+6V≤1.3%; 3.7≤Ti/N≤7.0; 1.0≤Ca/S≤3.0; wherein the quenched-tempered high-strength steel has a microstructure of tempered martensite; and wherein the quenched-tempered high-strength steel has a yield strength of 900-1080MPa, a tensile strength of 950-1200MPa, an elongation >10%, and an impact energy at -40°C >40J.
A method for evaluating the position of an aerial vehicle comprising the following steps of - receiving a radio signal from the aerial vehicle with an antenna array , - determining the direction of arrival of the received radio signal, - forming a reception beam of the antenna array depending on the determined direction of arrival for receiving one or more further radio signals from the aerial vehicle, - calculating the range between the aerial vehicle and the antenna array based on a radio signal provided for calculating the range and received from the aerial vehicle, and - evaluating the position of the aerial vehicle based on the calculated range, the determined direction of arrival, and the known position of the antenna array, wherein the determining of the direction of arrival of the received radio signal comprises the following steps: - collecting digital data from receiver chains of the antenna array, - generating a covariance matrix from the collected digital data, - completely evaluating the covariance matrix with a direction of arrival algorithm for determining the direction of arrival of the received radio signal, or - partially evaluating the covariance matrix with a direction of arrival algorithm considering the previously determined direction of arrival of the received radio signal for tracking the direction of arrival of the received radio signal, - determining the direction of arrival of the received radio signal based on the tracked received radio signal. - receiving a radio signal from the aerial vehicle with an antenna array , - determining the direction of arrival of the received radio signal, - forming a reception beam of the antenna array depending on the determined direction of arrival for receiving one or more further radio signals from the aerial vehicle, - calculating the range between the aerial vehicle and the antenna array based on a radio signal provided for calculating the range and received from the aerial vehicle, and - evaluating the position of the aerial vehicle based on the calculated range, the determined direction of arrival, and the known position of the antenna array, - collecting digital data from receiver chains of the antenna array, - generating a covariance matrix from the collected digital data, - completely evaluating the covariance matrix with a direction of arrival algorithm for determining the direction of arrival of the received radio signal, or - partially evaluating the covariance matrix with a direction of arrival algorithm considering the previously determined direction of arrival of the received radio signal for tracking the direction of arrival of the received radio signal, - determining the direction of arrival of the received radio signal based on the tracked received radio signal.
A method of preparing a flame-retardant synthetic resin composition, comprising the steps: (i) preparing a flame retardant composition comprising 20 to 50 parts by mass of component (A) described below, 50 to 80 parts by mass of component (B) described below (the total of the component (A) and the component (B) is 100 parts by mass), and 0.01 to 5 parts by mass of component (C) described below: component (A): at least one type of melamine salt selected from melamine orthophosphate, melamine pyrophosphate, melamine polyphosphate, or a mixture including two or more types of the melamine salts; component (B): at least one type of piperazine salt selected from piperazine orthophosphate, piperazine pyrophosphate, piperazine polyphosphate, or a mixture including two or more types of the piperazine salts; and component (C): a hydrotalcite compound; and (ii) blending the flame retardant composition of step (i) to a synthetic resin. (i) preparing a flame retardant composition comprising 20 to 50 parts by mass of component (A) described below, 50 to 80 parts by mass of component (B) described below (the total of the component (A) and the component (B) is 100 parts by mass), and 0.01 to 5 parts by mass of component (C) described below: component (A): at least one type of melamine salt selected from melamine orthophosphate, melamine pyrophosphate, melamine polyphosphate, or a mixture including two or more types of the melamine salts; component (B): at least one type of piperazine salt selected from piperazine orthophosphate, piperazine pyrophosphate, piperazine polyphosphate, or a mixture including two or more types of the piperazine salts; and component (C): a hydrotalcite compound; and component (A): at least one type of melamine salt selected from melamine orthophosphate, melamine pyrophosphate, melamine polyphosphate, or a mixture including two or more types of the melamine salts; component (B): at least one type of piperazine salt selected from piperazine orthophosphate, piperazine pyrophosphate, piperazine polyphosphate, or a mixture including two or more types of the piperazine salts; and component (C): a hydrotalcite compound; and (ii) blending the flame retardant composition of step (i) to a synthetic resin.
A dish support rack comprising a metal wire frame coated with a polyamide composition [composition (C)] comprising: - more than 50 % wt of a polyamide [polyamide (A), herein after], more than 50 % moles of recurring units of said polyamide complying with formula: -HN-(CH 2 ) 6 -NH-C(O)-(CH 2 ) 8 -C(O)- [recurring units (R 6,10 )], said polyamide (A) possessing a relative viscosity (RV) of at least 2.5, when measured in formic acid, according to ISO 307 standard, and, optionally: - up to 10 % wt of conventional filler(s) and/or additive(s). - more than 50 % wt of a polyamide [polyamide (A), herein after], more than 50 % moles of recurring units of said polyamide complying with formula: -HN-(CH 2 ) 6 -NH-C(O)-(CH 2 ) 8 -C(O)- [recurring units (R 6,10 )], said polyamide (A) possessing a relative viscosity (RV) of at least 2.5, when measured in formic acid, according to ISO 307 standard, and, optionally: - up to 10 % wt of conventional filler(s) and/or additive(s).