mhurhangee/patent-ind-claim-en huggingface dataset:
A mechanical CPR device, comprising: a piston having an end configured to interact with a patient's torso; a driving component configured to extend the piston toward the patient's torso and retract the piston away from the patient's torso; and a controller configured to determine a reference position by controlling the driving component to at least: extend the piston until a first position at which the end comes into contact with the patient's torso, and characterised by the controller being further configured to: determine the reference position by controlling the driving component to: further extend the piston to compress the patient's torso until a first threshold is reached; retract the piston until the end is at the first position; further retract the piston from the first position until a second threshold is exceeded; extend the piston to a second point being the point at which the second threshold becomes no longer exceeded; the reference position being based at least in part on the second point; wherein the controller is further configured to perform mechanical CPR by controlling the driving component to at least: compress the patient's torso by extending the piston from the reference position to a particular depth and retracting the piston from the particular depth to the reference position. a piston having an end configured to interact with a patient's torso; a driving component configured to extend the piston toward the patient's torso and retract the piston away from the patient's torso; and a controller configured to determine a reference position by controlling the driving component to at least: extend the piston until a first position at which the end comes into contact with the patient's torso, and characterised by the controller being further configured to: determine the reference position by controlling the driving component to: further extend the piston to compress the patient's torso until a first threshold is reached; retract the piston until the end is at the first position; further retract the piston from the first position until a second threshold is exceeded; extend the piston to a second point being the point at which the second threshold becomes no longer exceeded; the reference position being based at least in part on the second point; further extend the piston to compress the patient's torso until a first threshold is reached; retract the piston until the end is at the first position; further retract the piston from the first position until a second threshold is exceeded; extend the piston to a second point being the point at which the second threshold becomes no longer exceeded; the reference position being based at least in part on the second point; wherein the controller is further configured to perform mechanical CPR by controlling the driving component to at least: compress the patient's torso by extending the piston from the reference position to a particular depth and retracting the piston from the particular depth to the reference position.
A tubular convective device , comprising: a blown film forming a tube when inflated, the blown film having a first portion and a second portion , wherein the first portion and the second portion are separated longitudinally and sealed together at at least one longitudinal edge, the convective device having two openings that allow an inflating medium source to connect and provide inflating medium, an air-guide element configured to direct flow of inflating medium when the tubular convective device is bent, wherein the air-guide element comprises a guiding seal extending from an edge of the tubular convective device toward an interior of the tubular convective device, and a plurality of apertures disposed on the first portion of the blown film. a blown film forming a tube when inflated, the blown film having a first portion and a second portion , wherein the first portion and the second portion are separated longitudinally and sealed together at at least one longitudinal edge, the convective device having two openings that allow an inflating medium source to connect and provide inflating medium, an air-guide element configured to direct flow of inflating medium when the tubular convective device is bent, wherein the air-guide element comprises a guiding seal extending from an edge of the tubular convective device toward an interior of the tubular convective device, and a plurality of apertures disposed on the first portion of the blown film.
A method for assessing the H 2 S release capacity of a liquid sample containing one or more sulfur compounds which are able to be degraded into gaseous H 2 S with temperature, said method comprising the following steps: a) Placing a volume of the liquid sample in a purge vessel so as to obtain a liquid phase and a gaseous phase in a flask; b) Purging the gaseous phase with an inert gas stream for a determined period of time; c) Passing the purged gaseous phase through a H 2 S trap; d) Recovering H 2 S from the H 2 S trap; e) Measuring the recovered H 2 S, wherein the purge vessel is kept at a temperature from 40°C to 60°C, characterised in that the liquid sample is a corrosion inhibitor, an oil wetting agent, a solid dispersing agent, a scale inhibitor, an anti-foulant, an oxygen scavenger, a foaming agent, or a mixture thereof. a) Placing a volume of the liquid sample in a purge vessel so as to obtain a liquid phase and a gaseous phase in a flask; b) Purging the gaseous phase with an inert gas stream for a determined period of time; c) Passing the purged gaseous phase through a H 2 S trap; d) Recovering H 2 S from the H 2 S trap; e) Measuring the recovered H 2 S,
A method of manufacturing a fibre-reinforced blade for a wind energy plant, said blade being configured with at least a blade shell and means for conducting to earth adapted for conducting a lightning current to an earth connection, wherein the method comprises that the blade is provided with bands or strips comprising segmented conductor means that are configured for conducting a lightning current outside the blade to the means for conducting current to earth; and wherein the method is characterised in that the method includes the step of: distributing and securing the conductor means to an external surface of the blade shell in such a manner that the conductor means are essentially flush with the external surface of the blade shell, and so that the conductor means are distributed in at least one path, which is arranged essentially transversally to a longitudinal direction of the blade and spanning at least one main laminate in the blade shell, which main laminate comprises electrically conductive fibres.
Valve actuating device comprising: - a body with a bore (22 1 ) and a bottom (22 2 ); - an actuating element sealingly housed in the bore (22 1 ) of the body and forming a first chamber with the bottom (22 2 ) of the body ; - a piston with a portion (26 1 ) sealingly extending through a bore (24 1 ) in the actuating element , said portion (26 1 ) and bore (24 1 ) delimiting a second actuating chamber ; - an auxiliary fluid in the first and second chambers ; - an auxiliary fluid passage between the first and second chambers so that a movement of the piston in the bore (24 1 ) of the actuating element can increase the pressure in the first chamber and move the actuating element ; characterized in that the fluid passage between the first and second chambers comprises a restriction and a check-valve , both arranged in parallel, so as to limit the flow of the auxiliary fluid from the second chamber to the first chamber . - a body with a bore (22 1 ) and a bottom (22 2 ); - an actuating element sealingly housed in the bore (22 1 ) of the body and forming a first chamber with the bottom (22 2 ) of the body ; - a piston with a portion (26 1 ) sealingly extending through a bore (24 1 ) in the actuating element , said portion (26 1 ) and bore (24 1 ) delimiting a second actuating chamber ; - an auxiliary fluid in the first and second chambers ; - an auxiliary fluid passage between the first and second chambers so that a movement of the piston in the bore (24 1 ) of the actuating element can increase the pressure in the first chamber and move the actuating element ;
A device for transmitting/reflecting electromagnetic radiation in a wavelength range of the electromagnetic spectrum, said device comprising at least: - a first coating layer made of a first material, - a substrate made of a material different from the first material, and - a surface texturing forming cavities in the device ; where a lower layer (20; 50) disposed directly beneath the first coating layer is either a second coating layer made of a material different from the first material, or the substrate ; where the lower layer (20; 50) has a determined thickness (E20; E50); the cavities extending through the first coating layer and excavating the lower layer (20; 50) according to at least a portion of the thickness (E20; E50), the device comprising at least one back layer made of a material different from the substrate , the first coating layer being formed on a first side of the substrate , the back layer being formed on a second side of the substrate opposite the first side, characterized in that said cavities are distributed over the surface of the device with a variable periodicity, evolving according to a defined rule and not randomly. - a first coating layer made of a first material, - a substrate made of a material different from the first material, and - a surface texturing forming cavities in the device ; where a lower layer (20; 50) disposed directly beneath the first coating layer is either a second coating layer made of a material different from the first material, or the substrate ; where the lower layer (20; 50) has a determined thickness (E20; E50); the cavities extending through the first coating layer and excavating the lower layer (20; 50) according to at least a portion of the thickness (E20; E50), the device comprising at least one back layer made of a material different from the substrate , the first coating layer being formed on a first side of the substrate , the back layer being formed on a second side of the substrate opposite the first side, characterized in that said cavities are distributed over the surface of the device with a variable periodicity, evolving according to a defined rule and not randomly.
Method for managing a printing of data by a thermal printer , comprising a thermal print head , said thermal head 44 comprising a plurality of points, each point having an effective resistance r d , said thermal printer being powered by a power source, method comprising the following actions: - measuring a voltage U given by said power source of said thermal printer; - measuring an internal resistance r u of said power source, and - computing a duration t for heating a number n of points as a function of said voltage U of said power source, said internal resistance r u of the power source, said effective resistance r d of at least one point corresponding to a dot to be printed for the printing of said data and as a function of at least one value of parasitic resistance r p of at least one element of said thermal printer, - said method being characterized in that said duration is computed according to the following formula: t = W × r d U d 2 × n = n × r u + r d + r p 2 n × r d × U 2 × W wherein: - n represents the number of printing points of said thermal print head; - W represents the energy needed to heat n points of said thermal print head; - r p represents the parasitic resistance of a printing point of said thermal print head. - measuring a voltage U given by said power source of said thermal printer; - measuring an internal resistance r u of said power source, and - computing a duration t for heating a number n of points as a function of said voltage U of said power source, said internal resistance r u of the power source, said effective resistance r d of at least one point corresponding to a dot to be printed for the printing of said data and as a function of at least one value of parasitic resistance r p of at least one element of said thermal printer, - said method being characterized in that said duration is computed according to the following formula: t = W × r d U d 2 × n = n × r u + r d + r p 2 n × r d × U 2 × W wherein: - n represents the number of printing points of said thermal print head; - W represents the energy needed to heat n points of said thermal print head; - r p represents the parasitic resistance of a printing point of said thermal print head. - n represents the number of printing points of said thermal print head; - W represents the energy needed to heat n points of said thermal print head; - r p represents the parasitic resistance of a printing point of said thermal print head.
A semiconductor structure comprising a first layer and a second layer on top thereof and in physical contact therewith, the semiconductor structure comprising: 1) a device area at least comprising: a) a first structure in the first layer having a top surface above a top surface of the first layer , and b) a second structure in the second layer in physical contact with the first structure , such that the first structure is pinned in the second structure , 2) an optical overlay metrology area for optically evaluating an overlay error between the second structure and the first structure , comprising: a) a third structure in the first layer , formed of a material of which the first structure is formed, and having a top surface above the top surface of the first layer , b) a fourth structure in the second layer , formed of a material of which the second structure is formed, in physical contact with the third structure , such that the combination of the third and fourth structures mimics the combination of the first and second structures , and c) a fifth structure in the first layer , for use as a reference structure. 1) a device area at least comprising: a) a first structure in the first layer having a top surface above a top surface of the first layer , and b) a second structure in the second layer in physical contact with the first structure , such that the first structure is pinned in the second structure , a) a first structure in the first layer having a top surface above a top surface of the first layer , and b) a second structure in the second layer in physical contact with the first structure , such that the first structure is pinned in the second structure , 2) an optical overlay metrology area for optically evaluating an overlay error between the second structure and the first structure , comprising: a) a third structure in the first layer , formed of a material of which the first structure is formed, and having a top surface above the top surface of the first layer , b) a fourth structure in the second layer , formed of a material of which the second structure is formed, in physical contact with the third structure , such that the combination of the third and fourth structures mimics the combination of the first and second structures , and c) a fifth structure in the first layer , for use as a reference structure. a) a third structure in the first layer , formed of a material of which the first structure is formed, and having a top surface above the top surface of the first layer , b) a fourth structure in the second layer , formed of a material of which the second structure is formed, in physical contact with the third structure , such that the combination of the third and fourth structures mimics the combination of the first and second structures , and c) a fifth structure in the first layer , for use as a reference structure.
A component gripping tool comprising: a pair of claws configured to grip multiple pins or leads of an electronic component , wherein each claw has a gripping section and an arm section ; a contact block having a contact surface provided between the pair of claws that is configured to contact a leading end of at least two of the multiple pins or leads being gripped by the gripping sections of the pair of claws , characterized by : an escape section configured from a pair of recesses formed at an edge section of the contact surface on the contact block such that the arm sections of the pair of claws and the recesses face each other and that the contact surface of the contact block and the arm sections do not interfere with each other when the pair of claws is gripping the multiple pins or leads . a pair of claws configured to grip multiple pins or leads of an electronic component , wherein each claw has a gripping section and an arm section ; a contact block having a contact surface provided between the pair of claws that is configured to contact a leading end of at least two of the multiple pins or leads being gripped by the gripping sections of the pair of claws , characterized by : an escape section configured from a pair of recesses formed at an edge section of the contact surface on the contact block such that the arm sections of the pair of claws and the recesses face each other and that the contact surface of the contact block and the arm sections do not interfere with each other when the pair of claws is gripping the multiple pins or leads .
A compound of formula ( I ) or of formula (II) wherein Z is unsubstituted or substituted phenyl.
A method of producing human pancreatic endocrine cells, comprising: (a) culturing human definitive endoderm cells for 3 to 5 days in a medium supplemented with fibroblast growth factor 2 (FGF-2), retinoic acid and activin A, and (b) culturing the cells for 3 to 5 days in a medium supplemented with (i) retinoic acid, or (ii) retinoic acid and FGF-2, thereby producing a population of human pancreatic endocrine cells, wherein the pancreatic endocrine cells express at least NKX2.2, and wherein the pancreatic endocrine cells are of the β-cell lineage. (a) culturing human definitive endoderm cells for 3 to 5 days in a medium supplemented with fibroblast growth factor 2 (FGF-2), retinoic acid and activin A, and (b) culturing the cells for 3 to 5 days in a medium supplemented with (i) retinoic acid, or (ii) retinoic acid and FGF-2, thereby producing a population of human pancreatic endocrine cells, wherein the pancreatic endocrine cells express at least NKX2.2, and wherein the pancreatic endocrine cells are of the β-cell lineage.
Filter assembly for reducing noise for a vacuum cleaner comprising: a first filter region and at least one further filter region , which differs from the first filter region , wherein the first filter region and the at least one further filter region overlap one another partially adjoining one another and/or enclose one another at least partially adjoining one another, so that the filter regions form a regular inflow area and an outflow area which is plane-parallel with respect to the inflow area for an air flowing through the filter assembly, characterised in that the first filter region and the at least one further filter region define air-permeable subareas adjacent to the inflow area and/or to the outflow area , which differ from one another by means of at least one predetermined property.
Method for wireless communication between a direct radiographic panel and a radiographic workstation, comprising the following steps : • detecting, by means of a processor of the direct radiographic panel, the quality of a wireless connection between an output unit of the direct radiographic panel which can read out the radiographic image stored in the direct radiographic panel and convert it into wireless communication signals, and a reception unit of the radiographic workstation which can receive the wireless communication signals which have been sent by the output unit of the direct radiographic panel; wherein said quality is determined by means of a parameter the value of which depends on the signal to noise ratio of said wireless connection, • if the quality of the wireless connection between the output unit of the direct radiographic panel and the reception unit of the radiographic workstation is equal to or greater than a predetermined value, converting the radiographic image stored in the direct radiographic panel into wireless communication signals and forwarding these signals to the reception unit of the radiographic workstation by means of the output unit of the direct radiographic panel; • if the quality of the wireless connection between the output unit of the direct radiographic panel and the reception unit of the radiographic workstation is below a predetermined value, storing the radiographic image in the memory of the direct radiographic panel. • detecting, by means of a processor of the direct radiographic panel, the quality of a wireless connection between an output unit of the direct radiographic panel which can read out the radiographic image stored in the direct radiographic panel and convert it into wireless communication signals, and a reception unit of the radiographic workstation which can receive the wireless communication signals which have been sent by the output unit of the direct radiographic panel; wherein said quality is determined by means of a parameter the value of which depends on the signal to noise ratio of said wireless connection, • if the quality of the wireless connection between the output unit of the direct radiographic panel and the reception unit of the radiographic workstation is equal to or greater than a predetermined value, converting the radiographic image stored in the direct radiographic panel into wireless communication signals and forwarding these signals to the reception unit of the radiographic workstation by means of the output unit of the direct radiographic panel; • if the quality of the wireless connection between the output unit of the direct radiographic panel and the reception unit of the radiographic workstation is below a predetermined value, storing the radiographic image in the memory of the direct radiographic panel.
A display device , comprising: a housing ; a roller located within the housing ; a display panel comprising a front surface and a rear surface; and a metallic plate coupled to the rear surface of the display panel and comprising an opening , wherein the metallic plate supports the display panel to prevent the display panel from being wrinkled, wherein the display panel and the metallic plate are wound on the roller , wherein the metallic plate further comprises a plurality of openings arranged in a plurality of rows which are aligned along a longitudinal direction of the roller , and wherein positions of openings of a first row are offset with respect to positions of openings of a second row adjacent to the first row such that adjacent openings of the first row are separated by the metallic plate which is vertically aligned with a center of an opening of the adjacent second row. a housing ; a roller located within the housing ; a display panel comprising a front surface and a rear surface; and a metallic plate coupled to the rear surface of the display panel and comprising an opening , wherein the metallic plate supports the display panel to prevent the display panel from being wrinkled, wherein the display panel and the metallic plate are wound on the roller , wherein the metallic plate further comprises a plurality of openings arranged in a plurality of rows which are aligned along a longitudinal direction of the roller , and wherein positions of openings of a first row are offset with respect to positions of openings of a second row adjacent to the first row such that adjacent openings of the first row are separated by the metallic plate which is vertically aligned with a center of an opening of the adjacent second row.