mhurhangee/patent-ind-claim-en huggingface dataset:
A method for creating control data for a treatment device for correcting the refraction of an eye by way of corneal modification, comprising - receiving data about a refraction correction need for the eye , - using the refraction correction need to determine an additive refraction alteration value resulting from an implant to be inserted into the cornea , - determining a subtractive refraction alteration value resulting from a lenticule to be removed from the cornea , - the additive refraction alteration value and the subtractive refraction alteration value together yielding the refraction correction need, - using the subtractive refraction alteration value to calculate a lenticule to be isolated in the cornea , in such a way that the lenticule is designed to bring about the subtractive refraction alteration value as a result of its removal from the cornea , and - calculating a cut surface such that the latter isolates the lenticule in the cornea and simultaneously bounds a chamber for the implant to be inserted, and creating data describing the cut surface , characterized in that - the correction is a rotationally asymmetric correction, the additive refraction alteration value defines a purely rotationally symmetric refraction alteration, in particular a purely spherical refraction alteration, and the subtractive refraction alteration value defines a rotationally asymmetric refraction alteration, in particular an astigmatic refraction alteration. - receiving data about a refraction correction need for the eye , - using the refraction correction need to determine an additive refraction alteration value resulting from an implant to be inserted into the cornea , - determining a subtractive refraction alteration value resulting from a lenticule to be removed from the cornea , - the additive refraction alteration value and the subtractive refraction alteration value together yielding the refraction correction need, - using the subtractive refraction alteration value to calculate a lenticule to be isolated in the cornea , in such a way that the lenticule is designed to bring about the subtractive refraction alteration value as a result of its removal from the cornea , and - calculating a cut surface such that the latter isolates the lenticule in the cornea and simultaneously bounds a chamber for the implant to be inserted, and creating data describing the cut surface , characterized in that - the correction is a rotationally asymmetric correction, the additive refraction alteration value defines a purely rotationally symmetric refraction alteration, in particular a purely spherical refraction alteration, and the subtractive refraction alteration value defines a rotationally asymmetric refraction alteration, in particular an astigmatic refraction alteration.
Air filter system for an internal combustion engine, comprising - a housing , - an inlet port disposed on the housing for supplying a fluid to be filtered, in particular air, - an outlet port disposed on the housing for discharging the filtered fluid, in particular an outlet port disposed centrally in the longitudinal direction (L), - at least one filter element disposed between inlet port and outlet port , - a support tube disposed inside the housing along a housing axis (L) for accommodating a filter element , - a secondary element with a longitudinal axis (L) and two oppositely positioned ends , comprising a filter medium disposed around the longitudinal axis (L), wherein one of the ends is open and the oppositely positioned end is tightly sealed by means of a closed end disc and the end disc features a connecting means provided for interacting with a connecting means of the support tube if mounted as intended, in order to fix the secondary element on the support tube . wherein the support tube is provided as a support of the secondary element , wherein the secondary element and the support tube each feature connecting means complementary to each other, and with which they can be connected to each other on one of their front faces , wherein the connecting means comprises, as part of a snap-fit connection, snap-fit hooks at the end disc of the secondary element which hook onto the connecting element on the support tube side for fixing purposes and wherein the end disc features a recess projecting into the interior of the secondary element and the snap-fit hooks project from a bottom of the recess further into the interior of the secondary element , wherein the support tube features at its end , at which the connecting element is disposed, a recess formed in conformity with a recess of the secondary element . - a housing , - an inlet port disposed on the housing for supplying a fluid to be filtered, in particular air, - an outlet port disposed on the housing for discharging the filtered fluid, in particular an outlet port disposed centrally in the longitudinal direction (L), - at least one filter element disposed between inlet port and outlet port , - a support tube disposed inside the housing along a housing axis (L) for accommodating a filter element , - a secondary element with a longitudinal axis (L) and two oppositely positioned ends , comprising a filter medium disposed around the longitudinal axis (L), wherein one of the ends is open and the oppositely positioned end is tightly sealed by means of a closed end disc and the end disc features a connecting means provided for interacting with a connecting means of the support tube if mounted as intended, in order to fix the secondary element on the support tube .
A desorbing process, comprising: bringing a solution containing a hydrogenated aromatic compound, at least one of [P((CH 2 ) m CH 3 ) 3 ((CH 2 ) n CH 3 ) (5 ≤ m ≤ 24, 13 ≤ n ≤ 24)] + and [N((CH 2 ) m CH 3 ) 3 ((CH 2 ) n CH 3 ) (5 ≤ m ≤ 24, 13 ≤ n ≤ 24)] + , and an anion into contact with an anode; and desorbing hydrogen from the hydrogenated aromatic compound. bringing a solution containing a hydrogenated aromatic compound, at least one of [P((CH 2 ) m CH 3 ) 3 ((CH 2 ) n CH 3 ) (5 ≤ m ≤ 24, 13 ≤ n ≤ 24)] + and [N((CH 2 ) m CH 3 ) 3 ((CH 2 ) n CH 3 ) (5 ≤ m ≤ 24, 13 ≤ n ≤ 24)] + , and an anion into contact with an anode; and desorbing hydrogen from the hydrogenated aromatic compound.
A method for displaying a Performance Object (PO) aggregation path interface in integrated network management, comprising: configuring an aggregation path display interface object using a time dimension and a resource dimension as a coordinate system and an aggregation path construction policy library; and acquiring aggregation path data by using at least one computer interface that is initialized to be capable of receiving PO aggregation path data, selecting a corresponding aggregation path construction policy from the aggregation path construction policy library according to the aggregation path data, performing an aggregation path constructing processing for current aggregation path data according to the aggregation path construction policy, and displaying a constructed aggregation path on the aggregation path display interface object. configuring an aggregation path display interface object using a time dimension and a resource dimension as a coordinate system and an aggregation path construction policy library; and acquiring aggregation path data by using at least one computer interface that is initialized to be capable of receiving PO aggregation path data, selecting a corresponding aggregation path construction policy from the aggregation path construction policy library according to the aggregation path data, performing an aggregation path constructing processing for current aggregation path data according to the aggregation path construction policy, and displaying a constructed aggregation path on the aggregation path display interface object.
A self-testing hazard sensing device , comprising: a sensor ; a coil-shaped wire that has been temporarily dipped in a material before being installed in the hazard sensing device such that the material is in direct contact with and between the coils of the coil-shaped wire ; a controller configured to provide a current to the coil-shaped wire to heat the material and generate aerosol and/or carbon monoxide; and an airflow generator configured to provide the aerosol and/or carbon monoxide to the sensor ; wherein the controller is configured to determine whether the self-testing hazard sensing device is functioning properly using the aerosol and/or carbon monoxide provided to the sensor . a sensor ; a coil-shaped wire that has been temporarily dipped in a material before being installed in the hazard sensing device such that the material is in direct contact with and between the coils of the coil-shaped wire ; a controller configured to provide a current to the coil-shaped wire to heat the material and generate aerosol and/or carbon monoxide; and an airflow generator configured to provide the aerosol and/or carbon monoxide to the sensor ; wherein the controller is configured to determine whether the self-testing hazard sensing device is functioning properly using the aerosol and/or carbon monoxide provided to the sensor .
A method of processing crop after ensiling, the method comprising: storing cut crop material in an accumulation having an oxygen barrier ; fermenting the cut crop material within the accumulation to form a silage material ; and providing a mechanical macerator comprising macerating plates or rollers that move relative to each other, and passing the silage material therebetween; characterized in macerating the silage material after fermentation with the mechanical macerator . storing cut crop material in an accumulation having an oxygen barrier ; fermenting the cut crop material within the accumulation to form a silage material ; and providing a mechanical macerator comprising macerating plates or rollers that move relative to each other, and passing the silage material therebetween; characterized in macerating the silage material after fermentation with the mechanical macerator .
Apparatus for regulating the stroke of double-acting hydraulic actuators of the type used for hydraulic actuation of maneuvering members of operating machines, comprising double-acting hydraulic actuators or hydraulic cylinders , hydraulic control circuits, hydraulic distributors , pressure transducers , wherein each hydraulic control circuit comprises a shut-off valve , a pressure reducing valve and an electronic regulation valve , wherein each single double-acting hydraulic actuator or hydraulic cylinder is supplied by a hydraulic control circuit connected to a hydraulic distributor from which a supply line originates for feeding the bottom side of the single double-acting hydraulic actuator or hydraulic cylinder and a line originates for feeding the stem side of the single double-acting hydraulic actuator or hydraulic cylinder , wherein a shut-off valve is provided on the supply line to the bottom side of the single double-acting hydraulic actuator or hydraulic cylinder with the task of intercepting and regulating the outlet flow, wherein the shut-off valve is hydraulically operated by the pressure value at the stem side of the single double-acting hydraulic actuator or hydraulic cylinder through interposition of a pressure reducing valve and modulated by an electronic regulation valve to which it is hydraulically connected; the apparatus further comprising operating means configured to operate the electronic regulation valve in accordance with the signal originated by a pressure transducer in accordance with a pressure value detected at the stem side of the single double-acting hydraulic actuator or hydraulic cylinder , the electronic regulation valve being operated in order to act on the shut-off valve so as to control and increase opening thereof upon reaching a pressure of a predetermined minimum value at the stem side , and to increase the opening of the shut-off valve until reaching a pressure of a predetermined maximum value at the stem side , the operating means being further configured such that when the pressure at the stem side decreases, opening of the shut-off valve , controlled by the electronic regulation valve is reduced, and in the event that the movement stops, the shut-off valve closes completely, so as to maintain the pressure at the stem side within a pre-established pressure range.
A determination device comprising: an acquisition unit that acquires determination information for determining a degree of deterioration or guarantee of a lead-acid battery ; a determination unit that determines the degree of deterioration or guarantee of the lead-acid battery by referring to a database that stores the determination information and the degree of deterioration or guarantee of the lead-acid battery in association with each other based on the acquired determination information; and an output unit that outputs a result determined by the determination unit , wherein the determination information is appearance information including liquid smear, corrosion of a terminal, or breakage of a container, or image information of the lead-acid battery . an acquisition unit that acquires determination information for determining a degree of deterioration or guarantee of a lead-acid battery ; a determination unit that determines the degree of deterioration or guarantee of the lead-acid battery by referring to a database that stores the determination information and the degree of deterioration or guarantee of the lead-acid battery in association with each other based on the acquired determination information; and an output unit that outputs a result determined by the determination unit , wherein the determination information is appearance information including liquid smear, corrosion of a terminal, or breakage of a container, or image information of the lead-acid battery .
A bispecific single chain antibody construct binding to a target cell surface antigen via a first binding domain and to the T cell surface antigen CD3 via a second binding domain, the construct comprising two FcRn binding peptides, wherein: (a) a first FcRn binding peptide consists of the amino acid sequence QRFVTGHFGGLX 1 PANG (SEQ ID NO: 1) whereas X 1 is Y or H; and (b) a second FcRn binding peptide consists of the amino acid sequence TGHFGGLHP (SEQ ID NO: 4); wherein the bispecific single chain antibody construct does not have an amino acid sequence as depicted in SEQ ID NOs: 132-135. (a) a first FcRn binding peptide consists of the amino acid sequence QRFVTGHFGGLX 1 PANG (SEQ ID NO: 1) whereas X 1 is Y or H; and (b) a second FcRn binding peptide consists of the amino acid sequence TGHFGGLHP (SEQ ID NO: 4);
A display device , the display device comprising: a display for outputting an image and having a curvature in a horizontal direction that is configured to change between a flat state and a bent state of the display ; an inner sheet disposed at a rear side of the display ; a cover bottom disposed at a rear side of the inner sheet ; and a middle cabinet for covering perimeters of the display , the inner sheet , and the cover bottom and forming a side appearance, wherein the middle cabinet includes: a first middle cabinet positioned on each of a top side and a bottom side of the display ; and a second middle cabinet positioned on each of a left side and a right side of the display , wherein when the curvature of the display changes, a spacing between the first middle cabinet and the second middle cabinet changes, and wherein the display is fixed to the second middle cabinet , and the inner sheet and the cover bottom are coupled to the second middle cabinet such that end portions of the cover bottom and the inner sheet slip in the horizontal direction inside the second middle cabinet . a display for outputting an image and having a curvature in a horizontal direction that is configured to change between a flat state and a bent state of the display ; an inner sheet disposed at a rear side of the display ; a cover bottom disposed at a rear side of the inner sheet ; and a middle cabinet for covering perimeters of the display , the inner sheet , and the cover bottom and forming a side appearance, wherein the middle cabinet includes: a first middle cabinet positioned on each of a top side and a bottom side of the display ; and a second middle cabinet positioned on each of a left side and a right side of the display , wherein when the curvature of the display changes, a spacing between the first middle cabinet and the second middle cabinet changes, and wherein the display is fixed to the second middle cabinet , and the inner sheet and the cover bottom are coupled to the second middle cabinet such that end portions of the cover bottom and the inner sheet slip in the horizontal direction inside the second middle cabinet . a first middle cabinet positioned on each of a top side and a bottom side of the display ; and a second middle cabinet positioned on each of a left side and a right side of the display , wherein when the curvature of the display changes, a spacing between the first middle cabinet and the second middle cabinet changes, and wherein the display is fixed to the second middle cabinet , and the inner sheet and the cover bottom are coupled to the second middle cabinet such that end portions of the cover bottom and the inner sheet slip in the horizontal direction inside the second middle cabinet .
A technical roll, in particular for paper production, comprising an elongate roll core , and at least one first cover provided on the roll core , characterized by an empty conduit suitable for receiving a polymer fiber and extending over the length of the roll such that the polymer fiber can be introduced at one end of the empty conduit. an elongate roll core , and at least one first cover provided on the roll core , characterized by an empty conduit suitable for receiving a polymer fiber and extending over the length of the roll such that the polymer fiber can be introduced at one end of the empty conduit.
An input device comprising a plastic cover and a film sensor laminated together in a laminating direction with an optical transparent adhesive layer therebetween, wherein a resin flowing direction MD1 of the plastic cover is an extruding direction in manufacturing a plastic base material of the plastic cover , wherein the film sensor comprises an electrode layer disposed on a film base material layer, wherein a resin flowing direction MD2 of the film sensor is a roll drawing direction in manufacturing the film base material layer of the film sensor , wherein a resin constituting the plastic base material is different from a resin constituting the film base material layer, wherein a thickness of the plastic cover is greater than a thickness of the film sensor , and wherein the resin flowing direction MD1 of the plastic cover and the resin flowing direction MD2 of the film sensor are crossing each other in plan view in the laminating direction. wherein a resin flowing direction MD1 of the plastic cover is an extruding direction in manufacturing a plastic base material of the plastic cover , wherein the film sensor comprises an electrode layer disposed on a film base material layer, wherein a resin flowing direction MD2 of the film sensor is a roll drawing direction in manufacturing the film base material layer of the film sensor , wherein a resin constituting the plastic base material is different from a resin constituting the film base material layer, wherein a thickness of the plastic cover is greater than a thickness of the film sensor , and wherein the resin flowing direction MD1 of the plastic cover and the resin flowing direction MD2 of the film sensor are crossing each other in plan view in the laminating direction.
A method of executing a smart contract, comprising: starting (S621), by a blockchain node when the blockchain node deployed the smart contract, to turn a bytecode of the smart contract into a machine code through Just-In-Time, JIT, compilation and store the machine code; reporting, by the blockchain node when the blockchain node is to reach a consensus on a transaction invoking the smart contract deployed, a compilation progress of the JIT compilation against the smart contract deployed to other blockchain nodes in a blockchain network; obtaining, by the blockchain node, a compilation progress reported by the other blockchain nodes; determining, by the blockchain node, a number of blockchain nodes in the blockchain network storing the machine code corresponding to the bytecode of the smart contract according to the compilation progress of the blockchain node and the compilation progress reported by the other blockchain nodes; and when the blockchain node is to execute the smart contract deployed, the machine code of the smart contract is stored locally, and the determined number of blockchain nodes storing the machine code of the smart contract in the blockchain network is greater than or equal to a predetermined number, executing (S623), by the blockchain node, the machine code. starting (S621), by a blockchain node when the blockchain node deployed the smart contract, to turn a bytecode of the smart contract into a machine code through Just-In-Time, JIT, compilation and store the machine code; reporting, by the blockchain node when the blockchain node is to reach a consensus on a transaction invoking the smart contract deployed, a compilation progress of the JIT compilation against the smart contract deployed to other blockchain nodes in a blockchain network; obtaining, by the blockchain node, a compilation progress reported by the other blockchain nodes; determining, by the blockchain node, a number of blockchain nodes in the blockchain network storing the machine code corresponding to the bytecode of the smart contract according to the compilation progress of the blockchain node and the compilation progress reported by the other blockchain nodes; and when the blockchain node is to execute the smart contract deployed, the machine code of the smart contract is stored locally, and the determined number of blockchain nodes storing the machine code of the smart contract in the blockchain network is greater than or equal to a predetermined number, executing (S623), by the blockchain node, the machine code.