mhurhangee/patent-ind-claim-en huggingface dataset:
A method for removing errors from a dimensioning-system measurement, the method comprising: providing a dimensioning system for carrying out a dimensioning-system measurement, the dimensioning-system measurement comprising projecting a light pattern into a field of view of an environment comprising an object and capturing an image of the projected light pattern that is reflected; analysing pattern distortions in the captured image to compute three dimensional, 3D, data corresponding to the object in the environment; selecting a particular dimension to be estimated; obtaining , using the 3D data, values for one or more predictor variables, the predictor variables describing aspects of the dimensioning-system measurement of the particular dimension; creating , using the 3D data, an intermediate estimate of the particular dimension; retrieving , from a library of error models, an error model corresponding to the particular dimension; computing , using the error model and the values for one or more predictor variables, an error estimate for the particular dimension; and subtracting the error estimate from the intermediate estimate to obtain a final estimate of the particular dimension; characterized in that (i) the 3D data includes a minimum-volume-bounding box, MVBB, (ii) the particular dimension is one of a length, a width, and a height of the MVBB, and (iii) the library of error models stores distinct error models for length, width, and height dimensions. providing a dimensioning system for carrying out a dimensioning-system measurement, the dimensioning-system measurement comprising projecting a light pattern into a field of view of an environment comprising an object and capturing an image of the projected light pattern that is reflected; analysing pattern distortions in the captured image to compute three dimensional, 3D, data corresponding to the object in the environment; selecting a particular dimension to be estimated; obtaining , using the 3D data, values for one or more predictor variables, the predictor variables describing aspects of the dimensioning-system measurement of the particular dimension; creating , using the 3D data, an intermediate estimate of the particular dimension; retrieving , from a library of error models, an error model corresponding to the particular dimension; computing , using the error model and the values for one or more predictor variables, an error estimate for the particular dimension; and subtracting the error estimate from the intermediate estimate to obtain a final estimate of the particular dimension; characterized in that (i) the 3D data includes a minimum-volume-bounding box, MVBB, (ii) the particular dimension is one of a length, a width, and a height of the MVBB, and (iii) the library of error models stores distinct error models for length, width, and height dimensions.
A wetting composition comprising: (a) from 20 to less than 50 wt % of one or more C10-C14 alcohol; (b) 25 to 70 wt % of one or more surfactant selected from a non-ionic, cationic, anionic and amphoteric surfactant; and (c) 5 to 50 wt% of a polar component comprising at least one selected from (i) water and (ii) up to 25 wt% of a water-miscible C1-C3 organic solvent. (a) from 20 to less than 50 wt % of one or more C10-C14 alcohol; (b) 25 to 70 wt % of one or more surfactant selected from a non-ionic, cationic, anionic and amphoteric surfactant; and (c) 5 to 50 wt% of a polar component comprising at least one selected from (i) water and (ii) up to 25 wt% of a water-miscible C1-C3 organic solvent.
A method , comprising: setting , by a computing device , a time threshold, the time threshold indicating a predetermined amount of time; receiving , by the computing device , an indication of user input to prompt the computing device to detect a plurality of audio samples; responsive to determining that the predetermined amount of time has elapsed and that the computing device has received no audio command executable by the computing device since receipt of the indication of user input, outputting, for display, an indicator associated with at least one audio command executable by the computing device; Characterized in that it is further comprising: receiving , at the computing device , the plurality of audio samples; generating, at the computing device and based on the plurality of audio samples, information indicative of a speech pattern of the user, the information indicative of the speech pattern of the user being based on lengths of pauses between words detected in the plurality of audio samples; and updating , by the computing device and based on the information indicative of the speech pattern of the user, the predetermined amount of time indicated by the time threshold. setting , by a computing device , a time threshold, the time threshold indicating a predetermined amount of time; receiving , by the computing device , an indication of user input to prompt the computing device to detect a plurality of audio samples; responsive to determining that the predetermined amount of time has elapsed and that the computing device has received no audio command executable by the computing device since receipt of the indication of user input, outputting, for display, an indicator associated with at least one audio command executable by the computing device; Characterized in that it is further comprising: receiving , at the computing device , the plurality of audio samples; generating, at the computing device and based on the plurality of audio samples, information indicative of a speech pattern of the user, the information indicative of the speech pattern of the user being based on lengths of pauses between words detected in the plurality of audio samples; and updating , by the computing device and based on the information indicative of the speech pattern of the user, the predetermined amount of time indicated by the time threshold. receiving , at the computing device , the plurality of audio samples; generating, at the computing device and based on the plurality of audio samples, information indicative of a speech pattern of the user, the information indicative of the speech pattern of the user being based on lengths of pauses between words detected in the plurality of audio samples; and updating , by the computing device and based on the information indicative of the speech pattern of the user, the predetermined amount of time indicated by the time threshold.
A recombinant vector for producing a carbonic anhydrase in a plant, the recombinant vector comprising: (i) a small ubiquitin-related modifier (SUMO); (ii) a carbonic anhydrase; (iii) cellulose-binding module 3 (CBM3); and (iv) M domains located before each of the N-terminal of the SUMO and the N-terminal of the CBM3, respectively, wherein the gene sequence of each M domain comprises a nucleotide sequence encoding an amino acid sequence of SEQ ID NO: 5, or comprises a nucleotide sequence of SEQ ID NO: 6. (i) a small ubiquitin-related modifier (SUMO); (ii) a carbonic anhydrase; (iii) cellulose-binding module 3 (CBM3); and (iv) M domains located before each of the N-terminal of the SUMO and the N-terminal of the CBM3, respectively,
A urine incontinence pad having longitudinal side edges extending in a longitudinal direction (L) and transverse end edges , and comprising a fluid permeable topsheet , a backsheet and an absorbent core being located between said topsheet and said backsheet , said absorbent core having a core front edge , a core rear edge , a core first longitudinal side edge and a core second longitudinal side edge , said absorbent core comprising a first core layer and a fluid control layer , said absorbent core in the longitudinal direction (L) having a front portion , a rear portion and an intermediate portion located between said front portion and said rear portion , said front portion and said rear portion each having a length of about 30% of the total length of said absorbent core and said intermediate portion having a length of about 40% of the total length of said absorbent core , said first core layer extending over said front portion , said intermediate portion and said rear portion , said fluid control layer being shorter than said first core layer and extending in said front portion and said intermediate portion , said first core layer comprises 100 gsm superabsorbent material or more, said absorbent core having a varying thickness profile as seen in said longitudinal direction (L), with a first thickness (T1) in said intermediate portion and a second thickness (T2) in said rear portion , characterized in that said first thickness (T1) in said intermediate portion is from 9 mm or more and said second thickness (T2) is 4 mm or less, as measured under a load of 0.5 kPa, and in that a region having said second thickness (T2) extends 30 mm or more in the longitudinal direction (L) from said core rear edge and toward said core front edge .
An anti-rollout assembly, comprising: a housing defining a cavity ; a guide/restraint head pivotably coupled to the housing at a first end of the cavity; the anti-rollout assembly being characterised in that it further comprises: an overridable trigger pivotably coupled to the housing at a second end of the cavity, the second end opposite the first end; and a locking system operably coupled to the guide/restraint head and the overridable trigger, the locking system configured to bias the guide/restraint head into an upright position, the locking system configured to retract the guide/restraint head into the cavity in response to a first lateral force driving the overridable trigger. a housing defining a cavity ; a guide/restraint head pivotably coupled to the housing at a first end of the cavity; the anti-rollout assembly being characterised in that it further comprises: an overridable trigger pivotably coupled to the housing at a second end of the cavity, the second end opposite the first end; and a locking system operably coupled to the guide/restraint head and the overridable trigger, the locking system configured to bias the guide/restraint head into an upright position, the locking system configured to retract the guide/restraint head into the cavity in response to a first lateral force driving the overridable trigger.
Retrograde timepiece display mechanism comprising a main plate and at least one rack pivotally mounted on a first arbor pivoting about a first pivot axis (D1) and comprising a toothing centred on said first pivot axis (D1), which rack includes a sensing finger arranged to follow the periphery of a cam comprised in said retrograde display mechanism and which is pivotally mounted on a second arbor pivoting about a second pivot axis (D2), characterized in that the position of said first pivot axis (D1) and/or of said second pivot axis (D2) is adjustable with respect to said main plate by means of an adjustment plate (30; 40) carrying said first arbor and/or respectively said second arbor and movably mounted with at least one degree of freedom with respect to said main plate , and whose position with respect to said main plate is adjustable by an adjustment control means , in order to adjust the total angle of said retrograde display.
A laser welding method comprising: welding a plurality of workpieces by irradiating the workpieces in a stacked state with a laser beam, wherein the laser beam is reciprocatingly emitted along a fixed welding line, wherein irradiation positions of a start end and a termination end of the irradiation are shifted away from each other so that irradiation energy can be dispersed, emitting the laser beam from a point A to a point B along the fixed welding line, characterized by returning at point B and emitting the laser beam from the point B along the fixed welding line, and changing the direction of irradiation at a point A' before reaching the point A, whereby a branched line (c) of the welding line is set and a point A" that is different from the point A is set as the termination end of the irradiation, wherein the point A' is between the point A and the point B, and the point A' is different from the point A and the point B. welding a plurality of workpieces by irradiating the workpieces in a stacked state with a laser beam, wherein the laser beam is reciprocatingly emitted along a fixed welding line, wherein irradiation positions of a start end and a termination end of the irradiation are shifted away from each other so that irradiation energy can be dispersed, emitting the laser beam from a point A to a point B along the fixed welding line, characterized by returning at point B and emitting the laser beam from the point B along the fixed welding line, and changing the direction of irradiation at a point A' before reaching the point A, whereby a branched line (c) of the welding line is set and a point A" that is different from the point A is set as the termination end of the irradiation, wherein the point A' is between the point A and the point B, and the point A' is different from the point A and the point B.
A method of controlling discharge of a holdup capacitor in a power system having a voltage source , a holdup capacitor and a load , the method comprising: operably connecting the voltage source to the load; monitoring a first DC voltage of the voltage source; if the first DC voltage of the voltage source drops below a selected threshold, directing energy from the holdup capacitor to the load via a first path via a first switching device operably connecting the holdup capacitor and the load and starting a timer; directing energy from the holdup capacitor to the load via a second path via a second switching device connecting the holdup capacitor and the load, if the timer has exceeded a selected duration; and disconnecting the holdup capacitor from the load if a selected condition is satisfied; wherein the first path includes a current limiting device, and wherein the current limiting device is at least one of a resistor and an active device, wherein the first path defines a high impedance path; the second path defines a lower impedance path than the first path; and wherein the first and second paths are parallel paths between the holdup capacitor and the load. operably connecting the voltage source to the load; monitoring a first DC voltage of the voltage source; if the first DC voltage of the voltage source drops below a selected threshold, directing energy from the holdup capacitor to the load via a first path via a first switching device operably connecting the holdup capacitor and the load and starting a timer; directing energy from the holdup capacitor to the load via a second path via a second switching device connecting the holdup capacitor and the load, if the timer has exceeded a selected duration; and disconnecting the holdup capacitor from the load if a selected condition is satisfied; wherein the first path includes a current limiting device, and wherein the current limiting device is at least one of a resistor and an active device, wherein the first path defines a high impedance path; the second path defines a lower impedance path than the first path; and wherein the first and second paths are parallel paths between the holdup capacitor and the load.
A method of treating individual food product items or individual food product pieces comprising the steps of: a) continously carrying the individual food product items or individual food product pieces through a housing of a treating apparatus on a carrying run of an open conveyor belt wherein each of the individual food product items or individual food product pieces rests in a positional orientation on the carrying run of the open conveyor belt and the carrying run of the open conveyor belt carries the individual food product items or individual food product pieces over one or more air knives positioned in the housing beneath the carrying run of the open conveyor; b) discharging air from the one or more air knives through the open conveyor belt such that the air discharged from the one or more air knives blows against and changes the individual positional orientations of the individual food product items or individual food product pieces on the carrying run of the open conveyor; and c) treating the individual food product items or individual food product pieces by flame roasting, cooking, searing, or grilling the individual food product items or individual food product pieces in the housing of the treating apparatus as the individual food product items or individual food product pieces are carried by the carrying run of the open conveyor belt. a) continously carrying the individual food product items or individual food product pieces through a housing of a treating apparatus on a carrying run of an open conveyor belt wherein each of the individual food product items or individual food product pieces rests in a positional orientation on the carrying run of the open conveyor belt and the carrying run of the open conveyor belt carries the individual food product items or individual food product pieces over one or more air knives positioned in the housing beneath the carrying run of the open conveyor; b) discharging air from the one or more air knives through the open conveyor belt such that the air discharged from the one or more air knives blows against and changes the individual positional orientations of the individual food product items or individual food product pieces on the carrying run of the open conveyor; and c) treating the individual food product items or individual food product pieces by flame roasting, cooking, searing, or grilling the individual food product items or individual food product pieces in the housing of the treating apparatus as the individual food product items or individual food product pieces are carried by the carrying run of the open conveyor belt.
A method of making silicon carbide, the method including: a. providing a solvent free liquid consisting essentially of silicon, carbon and oxygen; b. curing the liquid to provide a cured material consisting essential of silicon, carbon and oxygen; c. having the cured material at a temperature of less than 150 °C; d. transforming the cured material to a ceramic material consisting essentially of silicon, carbon and oxygen; and, e. removing essentially all of the oxygen from the ceramic material. a. providing a solvent free liquid consisting essentially of silicon, carbon and oxygen; b. curing the liquid to provide a cured material consisting essential of silicon, carbon and oxygen; c. having the cured material at a temperature of less than 150 °C; d. transforming the cured material to a ceramic material consisting essentially of silicon, carbon and oxygen; and, e. removing essentially all of the oxygen from the ceramic material.
Dye of the formula (I) in which R 1 is fluorine, chlorine, CF 3 or COOR 9 , R 2 is oxygen or sulfur, R 3 is hydrogen, R 4 , R 5 and R 6 are in each case methyl, R 7 and R 8 are each independently hydrogen, are each independently unsubstituted methyl, ethyl, npropyl, isopropyl, n-butyl, isobutyl or tert-butyl or are 1-methyl-2-methoxyethyl, and R 9 is methyl. R 1 is fluorine, chlorine, CF 3 or COOR 9 , R 2 is oxygen or sulfur, R 3 is hydrogen, R 4 , R 5 and R 6 are in each case methyl, R 7 and R 8 are each independently hydrogen, are each independently unsubstituted methyl, ethyl, npropyl, isopropyl, n-butyl, isobutyl or tert-butyl or are 1-methyl-2-methoxyethyl, and R 9 is methyl.
An inflation sensor system for an inflatable, comprising: a readiness indicator module ; a stretch sensor configured for mounting to the inflatable and to provide a real-time stretch data of an elastic deformation of the inflatable; and a controller configured to receive the real-time stretch data and to transmit a control signal to the readiness indicator module to indicate a deployed status of the inflatable; and characterized by : a temperature sensor configured for mounting to the inflatable and to provide a real-time temperature data of the inflatable. a readiness indicator module ; a stretch sensor configured for mounting to the inflatable and to provide a real-time stretch data of an elastic deformation of the inflatable; and a controller configured to receive the real-time stretch data and to transmit a control signal to the readiness indicator module to indicate a deployed status of the inflatable; and characterized by : a temperature sensor configured for mounting to the inflatable and to provide a real-time temperature data of the inflatable.
An interactive system for an amusement park, comprising: one or more identification devices configured to detect an identifier supported by a wearable device of a user; one or more processors configured to: monitor interactions of the user with attractions within the amusement park based on respective signals received from the one or more identification devices ; and output a respective signal to an animated character head for wearing by a performer, wherein the signal causes the animated character head to select an animation for presentation to the user, wherein the animation selected is based on the interactions of the user. one or more identification devices configured to detect an identifier supported by a wearable device of a user; one or more processors configured to: monitor interactions of the user with attractions within the amusement park based on respective signals received from the one or more identification devices ; and output a respective signal to an animated character head for wearing by a performer, wherein the signal causes the animated character head to select an animation for presentation to the user, wherein the animation selected is based on the interactions of the user. monitor interactions of the user with attractions within the amusement park based on respective signals received from the one or more identification devices ; and output a respective signal to an animated character head for wearing by a performer, wherein the signal causes the animated character head to select an animation for presentation to the user, wherein the animation selected is based on the interactions of the user.