mhurhangee/patent-ind-claim-en huggingface dataset:
A support system (S) for a working vehicle , the support system (S) comprising: a working vehicle including a vehicle body , a controller , and a communicator , the vehicle body being operable to travel selectively under manual steering using a steering device or under automatic steering using the steering device , the controller being configured or programmed to define a planned travel line (L2) for the automatic steering based on a reference line (L1) and to control the automatic steering, the communicator being configured or programmed to receive a replacement line (L4) for replacing the reference line (L1) defined by the controller ; and a server to transmit the replacement line (L4) to the communicator , characterized in that the controller includes a status acquiring unit to acquire a status of a device provided in or on the working vehicle , and is configured or programmed to switch between a first mode and a second mode in accordance with the status acquired by the status acquiring unit , the first mode being a mode in which the controller replaces the reference line (L1) with the replacement line (L4) transmitted from the server , the second mode being a mode in which the controller does not replace the reference line (L1) with the replacement line (L4) transmitted from the server . a working vehicle including a vehicle body , a controller , and a communicator , the vehicle body being operable to travel selectively under manual steering using a steering device or under automatic steering using the steering device , the controller being configured or programmed to define a planned travel line (L2) for the automatic steering based on a reference line (L1) and to control the automatic steering, the communicator being configured or programmed to receive a replacement line (L4) for replacing the reference line (L1) defined by the controller ; and a server to transmit the replacement line (L4) to the communicator , characterized in that the controller includes a status acquiring unit to acquire a status of a device provided in or on the working vehicle , and is configured or programmed to switch between a first mode and a second mode in accordance with the status acquired by the status acquiring unit , the first mode being a mode in which the controller replaces the reference line (L1) with the replacement line (L4) transmitted from the server , the second mode being a mode in which the controller does not replace the reference line (L1) with the replacement line (L4) transmitted from the server . includes a status acquiring unit to acquire a status of a device provided in or on the working vehicle , and is configured or programmed to switch between a first mode and a second mode in accordance with the status acquired by the status acquiring unit , the first mode being a mode in which the controller replaces the reference line (L1) with the replacement line (L4) transmitted from the server , the second mode being a mode in which the controller does not replace the reference line (L1) with the replacement line (L4) transmitted from the server .
A voltage sampling method, comprising: producing a sampled voltage from an output of an electronic device by a coupler coupled to a first set of resistors and a second set of resistors ; dividing, by a voltage divider, the sampled voltage into a fine sampled voltage and a coarse sampled voltage, the fine sampled voltage being supplied by an output of a differential amplifier coupled across the first set of resistors , wherein the sum of the coarse sampled voltage and the fine sampled voltage equals the sampled voltage, and wherein the coarse sampled voltage is larger than the fine sampled voltage; converting the fine sampled voltage being supplied by the output of the differential amplifier to a first digital value representing the fine sampled voltage by a second analog-to-digital converter coupled to the output of the differential amplifier, wherein the fine sampled voltage has a lower value than a maximum voltage sense level associated with the first analog-to digital converter ; converting, by a first analog-to-digital converter coupled to at least one of the resistors among the second set of resistors , the coarse sampled voltage to a second digital value representing the coarse sampled voltage; and producing a third digital value by combining the first digital value with the second digital value, the third digital value representing the sampled voltage. producing a sampled voltage from an output of an electronic device by a coupler coupled to a first set of resistors and a second set of resistors ; dividing, by a voltage divider, the sampled voltage into a fine sampled voltage and a coarse sampled voltage, the fine sampled voltage being supplied by an output of a differential amplifier coupled across the first set of resistors , wherein the sum of the coarse sampled voltage and the fine sampled voltage equals the sampled voltage, and wherein the coarse sampled voltage is larger than the fine sampled voltage; converting the fine sampled voltage being supplied by the output of the differential amplifier to a first digital value representing the fine sampled voltage by a second analog-to-digital converter coupled to the output of the differential amplifier, wherein the fine sampled voltage has a lower value than a maximum voltage sense level associated with the first analog-to digital converter ; converting, by a first analog-to-digital converter coupled to at least one of the resistors among the second set of resistors , the coarse sampled voltage to a second digital value representing the coarse sampled voltage; and producing a third digital value by combining the first digital value with the second digital value, the third digital value representing the sampled voltage.
A method for producing a ceramic honeycomb structure comprising a ceramic honeycomb body having large numbers of longitudinal cells partitioned by porous cell walls , and a peripheral wall formed on a peripheral surface of said ceramic honeycomb body , comprising the steps of extruding a moldable ceramic material to form a ceramic green body having a honeycomb structure; machining a peripheral portion of said green body or a sintered body obtained from said green body to remove part of cell walls in the peripheral portion, thereby obtaining said ceramic honeycomb body having longitudinal grooves on the peripheral surface ; applying a coating material to the peripheral surface of said ceramic honeycomb body to form said peripheral wall , as well as to peripheral portions of both end surfaces of said ceramic honeycomb body ; and inserting the coating material applied to said peripheral portions of both end surfaces into peripheral cells , characterized in that the coating material applied to said peripheral portions of both end surface is pressed by disc-shaped pressing jigs, so that said coating material enters the end portions of the peripheral cells to form plugs and residual coating material layers remaining on the peripheral portions integrally connecting the plugs and the peripheral wall . machining a peripheral portion of said green body or a sintered body obtained from said green body to remove part of cell walls in the peripheral portion, thereby obtaining said ceramic honeycomb body having longitudinal grooves on the peripheral surface ; applying a coating material to the peripheral surface of said ceramic honeycomb body to form said peripheral wall , as well as to peripheral portions of both end surfaces of said ceramic honeycomb body ; and inserting the coating material applied to said peripheral portions of both end surfaces into peripheral cells , characterized in that the coating material applied to said peripheral portions of both end surface is pressed by disc-shaped pressing jigs, so that said coating material enters the end portions of the peripheral cells to form plugs and residual coating material layers remaining on the peripheral portions integrally connecting the plugs and the peripheral wall .
A system for a combustor, the system comprising a transfer tube assembly (108; 208), the transfer tube assembly (108; 208) comprising: an outer tube (112; 212) defining an inlet, an outlet and a first flow path (114; 214) therebetween; an inner tube (116; 216) positioned within the first flow path (114; 214), wherein the inner tube (116; 216) defines a second flow path (118; 218) in fluid isolation from the first flow path (114; 214); a connecting segment (120; 220) downstream from the inner tube (116; 216) and the outer tube (112; 212) relative to the first flow path (114; 214), the connecting segment having a first bore (122; 222) and a second bore (124; 224) in fluid communication with the second flow path (118; 218), wherein the first bore (122; 222) is in fluid communication with the first flow path (114; 214), and in that the second bore (124; 224) of the connecting segment (120; 220) is positioned off-set from and parallel to the first bore (122; 222) and defined in a portion of an outer wall (133; 233) surrounding the first bore (122; 222), the system further comprising a fuel distributor (110; 210) downstream of the transfer tube assembly (108; 208) and in fluid communication with the first and second flow paths. an outer tube (112; 212) defining an inlet, an outlet and a first flow path (114; 214) therebetween; an inner tube (116; 216) positioned within the first flow path (114; 214), wherein the inner tube (116; 216) defines a second flow path (118; 218) in fluid isolation from the first flow path (114; 214); a connecting segment (120; 220) downstream from the inner tube (116; 216) and the outer tube (112; 212) relative to the first flow path (114; 214), the connecting segment having a first bore (122; 222) and a second bore (124; 224) in fluid communication with the second flow path (118; 218), wherein the first bore (122; 222) is in fluid communication with the first flow path (114; 214), and in that the second bore (124; 224) of the connecting segment (120; 220) is positioned off-set from and parallel to the first bore (122; 222) and defined in a portion of an outer wall (133; 233) surrounding the first bore (122; 222), the system further comprising a fuel distributor (110; 210) downstream of the transfer tube assembly (108; 208) and in fluid communication with the first and second flow paths.
A coated fertilizer comprising: a fertilizer granule; and a coating disposed on a surface of the fertilizer granule, wherein the coating comprises a poly(lactic acid); a second polymer comprising a poly(butylene succinate), a cellulose triacetate, or a combination comprising at least one of the foregoing; and a sealant comprising a wax, wherein the sealant comprises from 0.1 to 2 wt. % wax based on the total weight of the coated fertilizer. a fertilizer granule; and a coating disposed on a surface of the fertilizer granule, wherein the coating comprises a poly(lactic acid); a second polymer comprising a poly(butylene succinate), a cellulose triacetate, or a combination comprising at least one of the foregoing; and a sealant comprising a wax, wherein the sealant comprises from 0.1 to 2 wt. % wax based on the total weight of the coated fertilizer. a poly(lactic acid); a second polymer comprising a poly(butylene succinate), a cellulose triacetate, or a combination comprising at least one of the foregoing; and a sealant comprising a wax, wherein the sealant comprises from 0.1 to 2 wt. % wax based on the total weight of the coated fertilizer.
Shaping jaw of a rotary swaging tool for shaping a plastically deformable, preferably metal, workpiece, • having a main jaw body and • having a shaping surface which delimits the shaping jaw on a workpiece side of the shaping jaw and is designed for shaping a workpiece, characterized in that the shaping surface is provided on a shaping body which is separate from the main jaw body and is placed on the main jaw body , preferably connected to the main jaw body , the shaping surface delimiting the shaping body on a workpiece side of the shaping body . • having a main jaw body and • having a shaping surface which delimits the shaping jaw on a workpiece side of the shaping jaw and is designed for shaping a workpiece,
An imide compound represented by formula (I) [wherein R represents a fluorine atom or a hydrogen atom].
LED light module (M) for a lighting device for vehicles, the LED light module (M) having at least one LED branch with at least one LED (LED1 .... LEDn), the LED light module (M) having at least one component (R R , R' R ) for identifying a bin class, the at least one component (R R , R' R ) being a BIN-classified resistor which is matched to the at least one LED fitted on the module, and the LED light module (M) being set up for operation with a total current (I G ) which can be supplied to the LED light module (M) from a power supply , the LED light module (M) has a linear analog controller (3, T2) which is connected in parallel with the LED branch (Z), so that the total current (I G ) is divided into a partial current (I D ) of the LED branch (Z) and a partial current (I B ) of the analog controller (3, T2), the analog controller (3, T2) is supplied with a signal (Us) as a reference variable, and a signal (U R ) which is proportional to one of the partial currents (I B , I D ) and is supplied by the component (R R , R' R ) is supplied as a controlled variable for adjusting the partial current (I B ) to be branched off and thus for regulating the partial current (I D ) of the LED branch (Z), characterized in that the signal (Us) supplied as a reference variable corresponds to the total current (I G ). the LED light module (M) has a linear analog controller (3, T2) which is connected in parallel with the LED branch (Z), so that the total current (I G ) is divided into a partial current (I D ) of the LED branch (Z) and a partial current (I B ) of the analog controller (3, T2), the analog controller (3, T2) is supplied with a signal (Us) as a reference variable, and a signal (U R ) which is proportional to one of the partial currents (I B , I D ) and is supplied by the component (R R , R' R ) is supplied as a controlled variable for adjusting the partial current (I B ) to be branched off and thus for regulating the partial current (I D ) of the LED branch (Z), characterized in that the signal (Us) supplied as a reference variable corresponds to the total current (I G ).
A method, comprising: communicating, by an access control device , a wireless advertisement that identifies a clock status of a real-time clock of the access control device , wherein the clock status includes a clock status value indicating that the real-time clock has not been set after a reset of the real-time clock ; establishing, by the access control device , a wireless communication connection with a computing device in response to the wireless advertisement; transmitting, by the access control device , a session random value to the computing device ; receiving, by the access control device , a clock update token from the computing device , wherein the clock update token is indicative of an authority of the computing device to update the real-time clock of the access control device ; authenticating, by the access control device , the clock update token based on the clock status value and the session random value; and updating, by the access control device , the real-time clock based on a received update time from the computing device in response to successful authentication of the clock update token. communicating, by an access control device , a wireless advertisement that identifies a clock status of a real-time clock of the access control device , wherein the clock status includes a clock status value indicating that the real-time clock has not been set after a reset of the real-time clock ; establishing, by the access control device , a wireless communication connection with a computing device in response to the wireless advertisement; transmitting, by the access control device , a session random value to the computing device ; receiving, by the access control device , a clock update token from the computing device , wherein the clock update token is indicative of an authority of the computing device to update the real-time clock of the access control device ; authenticating, by the access control device , the clock update token based on the clock status value and the session random value; and updating, by the access control device , the real-time clock based on a received update time from the computing device in response to successful authentication of the clock update token.
A non-transitory processor readable medium storing code representing instructions to be executed by a processor, the code comprising code to cause the processor to: receive a plurality of signals, each signal from the plurality of signals identifying a location from a plurality of locations; define a record in a database for each location from the plurality of locations, said database being configured to further maintain a list of pre-defined spoofing locations, wherein a pre-defined spoofing location is a single location that a third party represents as corresponding to multiple locations; receive a signal from the plurality of signals, identifying an untrusted location of a mobile device, said untrusted location being a location deemed as having a low accuracy and/or precision; compare the received untrusted location to the list of pre-defined spoofing locations and define a first match when the untrusted location matches a pre-defined spoofing location; compare the untrusted location to a plurality of location source historical data and define a second match when the untrusted location is statistically over-represented in the plurality of location source historical data; upon receiving the first and the second matching results, calculate an accuracy score for the untrusted location based on the first match and the second match; and send a signal including the untrusted location and the statistical accuracy score for the location. receive a plurality of signals, each signal from the plurality of signals identifying a location from a plurality of locations; define a record in a database for each location from the plurality of locations, said database being configured to further maintain a list of pre-defined spoofing locations, wherein a pre-defined spoofing location is a single location that a third party represents as corresponding to multiple locations; receive a signal from the plurality of signals, identifying an untrusted location of a mobile device, said untrusted location being a location deemed as having a low accuracy and/or precision; compare the received untrusted location to the list of pre-defined spoofing locations and define a first match when the untrusted location matches a pre-defined spoofing location; compare the untrusted location to a plurality of location source historical data and define a second match when the untrusted location is statistically over-represented in the plurality of location source historical data; upon receiving the first and the second matching results, calculate an accuracy score for the untrusted location based on the first match and the second match; and send a signal including the untrusted location and the statistical accuracy score for the location.
A method of determining a free testosterone concentration (T) in a biological sample, comprising: a) measuring in the biological sample i. a total concentration of SHBG, which is a dimer having a first monomer and a second monomer, ii. a total concentration of testosterone, and iii. a concentration of albumin (alb); and b) determining the concentration of free testosterone in the biological sample based on (i) -(iii) measured in step a), using an ensemble allostery model representing the binding equilibria (i) between testosterone and the first monomer of the SHBG and between testosterone and the second monomer of the SHBG , wherein unliganded SHBG has at least two distinct interconverting microstates S 2 and S' 2 , and wherein the first monomer and the second monomer have an allosteric interaction such that each of the microstates binds a first testosterone molecule with a different affinity; and (ii) between testosterone and the albumin, wherein the ensemble allostery model is defined by the following interactions ST + S 2 T + S 1 T + S 1 + S = S 0 T + ST + 2 ⋅ S 2 T + S 1 T + T f + alb . T = T 0 T = T f − k 1 + S ⋅ T + k 1 − ST + k 11 − S 1 − k 11 + S = 0 − k 3 + S 1 ⋅ T + k 3 − S 1 T − k 11 − S 1 + k 11 + S = 0 − k 2 + ST ⋅ T + k 1 + S ⋅ T − k 1 − ST + k 2 − S 2 T = 0 k 2 + ST ⋅ T + k 4 + S 1 T ⋅ T − k 4 − + k 2 − ⋅ S 2 T = 0 alb . T + alb = alb 0 a) measuring in the biological sample i. a total concentration of SHBG, which is a dimer having a first monomer and a second monomer, ii. a total concentration of testosterone, and iii. a concentration of albumin (alb); and i. a total concentration of SHBG, which is a dimer having a first monomer and a second monomer, ii. a total concentration of testosterone, and iii. a concentration of albumin (alb); and b) determining the concentration of free testosterone in the biological sample based on (i) -(iii) measured in step a), using an ensemble allostery model representing the binding equilibria (i) between testosterone and the first monomer of the SHBG and between testosterone and the second monomer of the SHBG , wherein unliganded SHBG has at least two distinct interconverting microstates S 2 and S' 2 , and wherein the first monomer and the second monomer have an allosteric interaction such that each of the microstates binds a first testosterone molecule with a different affinity; and (ii) between testosterone and the albumin, wherein the ensemble allostery model is defined by the following interactions ST + S 2 T + S 1 T + S 1 + S = S 0 T + ST + 2 ⋅ S 2 T + S 1 T + T f + alb . T = T 0 T = T f − k 1 + S ⋅ T + k 1 − ST + k 11 − S 1 − k 11 + S = 0 − k 3 + S 1 ⋅ T + k 3 − S 1 T − k 11 − S 1 + k 11 + S = 0 − k 2 + ST ⋅ T + k 1 + S ⋅ T − k 1 − ST + k 2 − S 2 T = 0 k 2 + ST ⋅ T + k 4 + S 1 T ⋅ T − k 4 − + k 2 − ⋅ S 2 T = 0 alb . T + alb = alb 0
A non-oriented electrical steel sheet comprising 1.5 to 4.0 wt% of Si, 0.1 to 1.5 wt% of Al, 0.1 to 1.5 wt% of Mn, 0.005 wt% or less (excluding 0 %) of C, 0.005 wt% or less (excluding 0 %) of N, 0.005 wt% or less (excluding 0 %) of Ti, 0.001 to 0.005 wt% of S, 0.1 wt% or less (excluding 0 %) of P, 0.02 to 0.2 wt% of at least one of Sn and Sb, and a balance of Fe and other inevitable impurities, wherein the electrical steel sheet satisfies the following Formulas 1, 2, and 3: 0.9 ≤ Al + Mn ≤ 2.1 0.2 ≤ Si + Al + Mn / 2 * P + Sn + Sb ≤ 0.4 Gs center − Gs surface / Gs center * t ≤ 0.5 (in Formula 1 and Formula 2, [Al], [Mn], [Si], [P], [Sn], and [Sb] represent the content (weight %) of Al, Mn, Si, P, Sn, and Sb, respectively, and in Formula 3, t represents the thickness (mm) of the non-oriented electrical steel sheet, Gs surface represents the average grain size(μm) from 0 to t/4 or 3t/4 to t based on the thickness direction of the non-oriented steel sheet, and Gs center represents the average grain size(μm) from more than t/4 to less than 3t/4 based on the thickness direction of the non-oriented steel sheet.) wherein the electrical steel sheet satisfies the following Formulas 1, 2, and 3: 0.9 ≤ Al + Mn ≤ 2.1 0.2 ≤ Si + Al + Mn / 2 * P + Sn + Sb ≤ 0.4 Gs center − Gs surface / Gs center * t ≤ 0.5 (in Formula 1 and Formula 2, [Al], [Mn], [Si], [P], [Sn], and [Sb] represent the content (weight %) of Al, Mn, Si, P, Sn, and Sb, respectively, and in Formula 3, t represents the thickness (mm) of the non-oriented electrical steel sheet, Gs surface represents the average grain size(μm) from 0 to t/4 or 3t/4 to t based on the thickness direction of the non-oriented steel sheet, and Gs center represents the average grain size(μm) from more than t/4 to less than 3t/4 based on the thickness direction of the non-oriented steel sheet.)