mhurhangee/patent-ind-claim-en huggingface dataset:
A computer program product for assessing the severity of chronic obstructive pulmonary disease, COPD, in a subject, the computer program product comprising a computer readable medium having computer readable code embodied therein, the computer readable code being configured such that, on execution on the control unit of an apparatus or system of any of claims 10-14, the apparatus or system caused to perform the steps of: determining by means of an accelerometer measurements of a breathing rate of the subject, an activity level of the subject, a measure of the respiratory effort of the subject and a measure of the severity or intensity of coughing by the subject; and combining the measurements of the breathing rate, the activity level, the measure of the respiratory effort and the measure of the severity or intensity of coughing to determine a score representing the severity of COPD in the subject. determining by means of an accelerometer measurements of a breathing rate of the subject, an activity level of the subject, a measure of the respiratory effort of the subject and a measure of the severity or intensity of coughing by the subject; and combining the measurements of the breathing rate, the activity level, the measure of the respiratory effort and the measure of the severity or intensity of coughing to determine a score representing the severity of COPD in the subject.
An electric hybrid transmission architecture for a work vehicle, said transmission architecture comprising: ● a first electric motor configured to provide a torque to a first input shaft by converting electric power received by a source of electric power to which said first electric motor is electrically connected; ● a second electric motor configured to provide a torque to a second input shaft by converting electric power received by the source of electric power to which said second electric motor is electrically connected; ● at least an output shaft being mechanically connected to at least one between said first and second input shafts by means of controllable engaging means; said source of electric power is a generator carried by an internal combustion engine of said work vehicle; said transmission architecture is characterized in that it comprises a third electric motor , configured to provide a torque to a third input shaft by converting electric power received by the source of electric power to which said third electric motor is electrically connected, said third input shaft being mechanically connected to said first input shaft by means of a gearing . ● a first electric motor configured to provide a torque to a first input shaft by converting electric power received by a source of electric power to which said first electric motor is electrically connected; ● a second electric motor configured to provide a torque to a second input shaft by converting electric power received by the source of electric power to which said second electric motor is electrically connected; ● at least an output shaft being mechanically connected to at least one between said first and second input shafts by means of controllable engaging means; said source of electric power is a generator carried by an internal combustion engine of said work vehicle; said transmission architecture is characterized in that it comprises a third electric motor , configured to provide a torque to a third input shaft by converting electric power received by the source of electric power to which said third electric motor is electrically connected, said third input shaft being mechanically connected to said first input shaft by means of a gearing . said source of electric power is a generator carried by an internal combustion engine of said work vehicle; said transmission architecture is characterized in that it comprises a third electric motor , configured to provide a torque to a third input shaft by converting electric power received by the source of electric power to which said third electric motor is electrically connected, said third input shaft being mechanically connected to said first input shaft by means of a gearing .
A method of managing memory, the method comprising: generating a page pool by aligning a plurality of pages of a memory by grouping pages to correspond to the same rank included in the memory ; when a request to store first data is received, allocating a destination page corresponding to the first data by searching for a page that allows a source page in which the first data is stored and the destination page of the first data to be included in the same rank from among pages included in the page pool; and updating a page table using information about the allocated destination page , characterized by further comprising generating a chunk pool using a space other than a space occupied by the first data in the memory , wherein the first data requested to be stored is a chunk smaller than a page. generating a page pool by aligning a plurality of pages of a memory by grouping pages to correspond to the same rank included in the memory ; when a request to store first data is received, allocating a destination page corresponding to the first data by searching for a page that allows a source page in which the first data is stored and the destination page of the first data to be included in the same rank from among pages included in the page pool; and updating a page table using information about the allocated destination page , characterized by further comprising generating a chunk pool using a space other than a space occupied by the first data in the memory , wherein the first data requested to be stored is a chunk smaller than a page.
Shot-blasting process comprising a stage of projection of a powder onto a surface of a component to be treated, said powder consisting of sintered particles, more than 95% by weight of the particles being beads, the powder exhibiting - a chemical analysis such that, as percentages by weight based on the oxides, - ZrO 2 partially stabilized with CeO 2 and Y 2 O 3 : remainder to 100%, CeO 2 and Y 2 O 3 being present in amounts such that, as molar percentage based on the sum of ZrO 2 , CeO 2 and Y 2 O 3 , CeO 2 : 2.5 - 11 mol% and Y 2 O 3 : 0.5 - 2 mol%, - Al 2 O 3 : 3 - 50% - additive chosen from CaO, manganese oxides, ZnO, praseodymium oxides, SrO, copper oxides, Nd 2 O 3 , BaO, iron oxides and their mixtures: 0.2 - 6% the CaO content being less than 2%, - elements other than ZrO 2 , CeO 2 , Y 2 O 3 , Al 2 O 3 , CaO, manganese oxides, ZnO, praseodymium oxides, SrO, copper oxides, Nd 2 O 3 , BaO and iron oxides: ≤ 5% the manganese oxides, the praseodymium oxides, the copper oxides and the iron oxides being expressed in the MnO, Pr 6 O 11 , CuO and Fe 2 O 3 form respectively, and - a relative density of greater than 95%. - a chemical analysis such that, as percentages by weight based on the oxides, - ZrO 2 partially stabilized with CeO 2 and Y 2 O 3 : remainder to 100%, CeO 2 and Y 2 O 3 being present in amounts such that, as molar percentage based on the sum of ZrO 2 , CeO 2 and Y 2 O 3 , CeO 2 : 2.5 - 11 mol% and Y 2 O 3 : 0.5 - 2 mol%, CeO 2 and Y 2 O 3 being present in amounts such that, as molar percentage based on the sum of ZrO 2 , CeO 2 and Y 2 O 3 , CeO 2 : 2.5 - 11 mol% and Y 2 O 3 : 0.5 - 2 mol%, - Al 2 O 3 : 3 - 50% - additive chosen from CaO, manganese oxides, ZnO, praseodymium oxides, SrO, copper oxides, Nd 2 O 3 , BaO, iron oxides and their mixtures: 0.2 - 6% the CaO content being less than 2%, - elements other than ZrO 2 , CeO 2 , Y 2 O 3 , Al 2 O 3 , CaO, manganese oxides, ZnO, praseodymium oxides, SrO, copper oxides, Nd 2 O 3 , BaO and iron oxides: ≤ 5% the manganese oxides, the praseodymium oxides, the copper oxides and the iron oxides being expressed in the MnO, Pr 6 O 11 , CuO and Fe 2 O 3 form respectively, and - a relative density of greater than 95%.
A method of encoding an audio signal comprising: receiving an audio signal frame, frame; applying multiple different time-frequency transforms to the frame across a frequency spectrum to produce multiple transforms of the frame, each transform having a corresponding time-frequency resolution across the frequency spectrum; computing measures of coding efficiency for multiple frequency bands within the frequency spectrum, for multiple time-frequency resolutions corresponding to the multiple transforms; selecting a combination of time-frequency resolutions to represent the frame at each of the multiple frequency bands within the frequency spectrum, based at least in part upon the computed measures of coding efficiency; determining a window size and a corresponding transform size for the frame, based at least in part upon the selected combination of time-frequency resolutions; determining a modification transformation for at least a one of the frequency bands based at least in part upon the selected combination of time-frequency resolutions and the determined window size; windowing the frame using the determined window size to produce a windowed frame; transforming the windowed frame using the determined transform size to produce a transform of the windowed frame that has a corresponding time-frequency resolution at each of the multiple frequency bands of the frequency spectrum; modifying a time-frequency resolution within at least one frequency band of the transform of the windowed frame based at least in part upon the determined modification transformation. receiving an audio signal frame, frame; applying multiple different time-frequency transforms to the frame across a frequency spectrum to produce multiple transforms of the frame, each transform having a corresponding time-frequency resolution across the frequency spectrum; computing measures of coding efficiency for multiple frequency bands within the frequency spectrum, for multiple time-frequency resolutions corresponding to the multiple transforms; selecting a combination of time-frequency resolutions to represent the frame at each of the multiple frequency bands within the frequency spectrum, based at least in part upon the computed measures of coding efficiency; determining a window size and a corresponding transform size for the frame, based at least in part upon the selected combination of time-frequency resolutions; determining a modification transformation for at least a one of the frequency bands based at least in part upon the selected combination of time-frequency resolutions and the determined window size; windowing the frame using the determined window size to produce a windowed frame; transforming the windowed frame using the determined transform size to produce a transform of the windowed frame that has a corresponding time-frequency resolution at each of the multiple frequency bands of the frequency spectrum; modifying a time-frequency resolution within at least one frequency band of the transform of the windowed frame based at least in part upon the determined modification transformation.
Operating device comprising a transformer arranged on a circuit board and having a first winding (W3) and at least one second winding (W4) on a coil body , wherein the coil body comprises a base section in which at least one first electrical connection (8.1), which is electrically connected to the first winding (W3), and one second electrical connection (7.2), which is electrically connected to the at least one second winding (W4), are arranged, the base section having a recess between the first electrical connection (8.1) and the second electrical connection (7.2), and characterized in that the circuit board has a cutout corresponding to the recess of the coil body , the recess and the cutout being opposite one another. wherein the coil body comprises a base section in which at least one first electrical connection (8.1), which is electrically connected to the first winding (W3), and one second electrical connection (7.2), which is electrically connected to the at least one second winding (W4), are arranged, the base section having a recess between the first electrical connection (8.1) and the second electrical connection (7.2), and characterized in that the circuit board has a cutout corresponding to the recess of the coil body , the recess and the cutout being opposite one another.
A robot head and neck assembly , comprising: a head and neck inner skeleton ; and a head and neck outer skeleton , disposed on an outer side of the head and neck inner skeleton , and wrapping the head and neck inner skeleton , wherein the head and neck inner skeleton comprises a first connecting member , a swing head actuator , a second connecting member , a lift head actuator , and a rotate head actuator ; wherein the first connecting member is connected to an output end of the swing head actuator , a case of the swing head actuator is connected to one end of the second connecting member , the other end of the second connecting member is connected to an output end of the lift head actuator , and an output end of the rotate head actuator is connected to a case of the lift head actuator , characterized in that the head and neck outer skeleton comprises a skull outer skeleton , a head outer skeleton , a swing head outer skeleton , a lift head outer skeleton , and a rotate head outer skeleton ; wherein the skull outer skeleton is connected to the head outer skeleton , the head outer skeleton wraps and is connected to the first connecting member , the swing head outer skeleton is connected to the second connecting member , the swing head outer skeleton wraps the second connecting member and the swing head actuator , the lift head outer skeleton wraps and is connected to the lift head actuator , and the rotate head outer skeleton wraps and is connected to the rotate head actuator . a head and neck inner skeleton ; and a head and neck outer skeleton , disposed on an outer side of the head and neck inner skeleton , and wrapping the head and neck inner skeleton , wherein the head and neck inner skeleton comprises a first connecting member , a swing head actuator , a second connecting member , a lift head actuator , and a rotate head actuator ; wherein the first connecting member is connected to an output end of the swing head actuator , a case of the swing head actuator is connected to one end of the second connecting member , the other end of the second connecting member is connected to an output end of the lift head actuator , and an output end of the rotate head actuator is connected to a case of the lift head actuator , characterized in that the head and neck outer skeleton comprises a skull outer skeleton , a head outer skeleton , a swing head outer skeleton , a lift head outer skeleton , and a rotate head outer skeleton ; wherein the skull outer skeleton is connected to the head outer skeleton , the head outer skeleton wraps and is connected to the first connecting member , the swing head outer skeleton is connected to the second connecting member , the swing head outer skeleton wraps the second connecting member and the swing head actuator , the lift head outer skeleton wraps and is connected to the lift head actuator , and the rotate head outer skeleton wraps and is connected to the rotate head actuator .
Method for detecting additives in an aqueous fluid, comprising: a. mixing a detecting solution comprising a lanthanide cation and a lanthanide chelating agent, with a sample of the aqueous fluid to be analysed optionally comprising at least one additive, under conditions allowing complexing of the lanthanide by the chelating agent and by the additive that is optionally present, b. detecting and, if appropriate, quantifying the variation in fluorescence associated with the possible presence of the additive in the aqueous fluid by time-resolved fluorescence, characterized in that the chelating agent is selected from diaminopyridine, imidazoline, hydrolysed polymaleic anhydride, oxalic acid, acetylacetonate, thiodiacetate, nitrilotriacetic acid (NTA), or derivatives thereof. a. mixing a detecting solution comprising a lanthanide cation and a lanthanide chelating agent, with a sample of the aqueous fluid to be analysed optionally comprising at least one additive, under conditions allowing complexing of the lanthanide by the chelating agent and by the additive that is optionally present, b. detecting and, if appropriate, quantifying the variation in fluorescence associated with the possible presence of the additive in the aqueous fluid by time-resolved fluorescence,
A process of making an antimicrobial polymer composition, said process comprising the steps of: a) mixing an antimicrobial additive into a polymeric material, wherein said antimicrobial additive comprises a deprotonated biguanidine compound; wherein said polymeric material comprises a polymeric backbone made up of urethane linkages derived from a polyisocyanate and a polyol; and wherein said mixing occurs under conditions that result in the breaking of a minority of said urethane bonds resulting in reactive isocyanate groups; and wherein two or more of said reactive isocyanate groups react with said antimicrobial additive to covalently bond said antimicrobial additive into the polymeric backbone of said polymeric material; resulting in an antimicrobial polymer composition. a) mixing an antimicrobial additive into a polymeric material, wherein said antimicrobial additive comprises a deprotonated biguanidine compound; wherein said polymeric material comprises a polymeric backbone made up of urethane linkages derived from a polyisocyanate and a polyol; and wherein said mixing occurs under conditions that result in the breaking of a minority of said urethane bonds resulting in reactive isocyanate groups; and wherein two or more of said reactive isocyanate groups react with said antimicrobial additive to covalently bond said antimicrobial additive into the polymeric backbone of said polymeric material; resulting in an antimicrobial polymer composition. wherein said polymeric material comprises a polymeric backbone made up of urethane linkages derived from a polyisocyanate and a polyol; and wherein said mixing occurs under conditions that result in the breaking of a minority of said urethane bonds resulting in reactive isocyanate groups; and wherein two or more of said reactive isocyanate groups react with said antimicrobial additive to covalently bond said antimicrobial additive into the polymeric backbone of said polymeric material; resulting in an antimicrobial polymer composition.
A lock for releasably securing a wear member to earth working equipment to protect the equipment from wear during use, the lock comprising: a collar having a body adapted to fit within a hole in the wear member, a threaded opening extending through the body; and a threaded pin received into the threaded opening for movement between a release position where the wear member can be installed on and removed from the earth working equipment, and a locked position where the lock retains the wear member on the earth working equipment; characterized by the collar having a pair of spaced lugs projecting outward of the body to rotate and engage opposite shoulders of a retaining structure in the hole of the wear member, the body and the lugs being formed as a one-piece member. a collar having a body adapted to fit within a hole in the wear member, a threaded opening extending through the body; and a threaded pin received into the threaded opening for movement between a release position where the wear member can be installed on and removed from the earth working equipment, and a locked position where the lock retains the wear member on the earth working equipment; characterized by the collar having a pair of spaced lugs projecting outward of the body to rotate and engage opposite shoulders of a retaining structure in the hole of the wear member, the body and the lugs being formed as a one-piece member.
Container provided with a sealing lid, comprising a jar , a lid for closing the jar, a rubber sealing ring , intended to be interposed between an upper edge of the jar and a lower flange of the lid , and a wire-shaped hooking element for hooking the lid to the jar in order to close the container, the jar being provided, in the proximity of its upper edge , with a collar radially projecting from the jar side surface so as to define below a circumferential step-like seat , and said wire-shaped hooking element being shaped with a pair of pivoting ends rotatably received inside respective holes in the lid and with two curvilinear locking portions , in an intermediate position with respect to said pivoting ends , so as to be rotatable about said pivoting ends between a lowered position in which the two curvilinear locking portions are stably received in said circumferential step-like seat , abutting against the lower surface of the collar, and a raised position in which the two curvilinear locking portions do not interfere with the jar , wherein said two curvilinear locking portions , when the wire-shaped hooking element is in said lowered position, embrace the side surface of the jar for about half of its circumference, between the two curvilinear locking portions an engagement portion being centrally arranged in an intermediate position of the wire-shaped element, forwardly projecting therefrom.
A forming method for forming a laminated glass sheet; the method comprising the steps of: - forming a laminated glass assembly by interposing a sheet of thermoplastic material between two side glass sheets, letting peripheral portions of said thermoplastic sheet to protrude beyond the outer peripheral edges of said glass sheets; - trimming said peripheral portion by moving, through a motorised member, a cutting member to the outside of said outer peripheral edges of said glass sheets so as to cut said peripheral portions and to form a laminated semifinished product; - feeding and arranging the laminated semifinished product in a heating station of the laminated semifinished product; and - heating the semifinished product inside said heating station by at least arranging it above at least one heating unit; characterised in that , prior to entering said heating station, said semifinished product is examined identifying, from the outside of the plant and by means of an optical system, any of said peripheral portions dragged by said laminated semifinished product; said optical system being configured to control the output of a warning signal in the presence of at least one of said dragged peripheral portions. - forming a laminated glass assembly by interposing a sheet of thermoplastic material between two side glass sheets, letting peripheral portions of said thermoplastic sheet to protrude beyond the outer peripheral edges of said glass sheets; - trimming said peripheral portion by moving, through a motorised member, a cutting member to the outside of said outer peripheral edges of said glass sheets so as to cut said peripheral portions and to form a laminated semifinished product; - feeding and arranging the laminated semifinished product in a heating station of the laminated semifinished product; and - heating the semifinished product inside said heating station by at least arranging it above at least one heating unit;