mhurhangee/patent-ind-claim-en huggingface dataset:
A parking control method for causing a control device of a vehicle (V) to execute a first control instruction on a basis of an operation command acquired from an operator (M), the first control instruction being for moving the vehicle (V) along a first route (RT1) to a target parking space, the parking control method comprising: presenting the operator (M) with selection information for selecting a first mode in which the execution of the first control instruction that is set is continued or a second mode in which the control device of the vehicle (V) is caused to execute an alternative control instruction for moving the vehicle (V); and causing the control device to execute the first control instruction or the alternative control instruction in accordance with selection input information from the operator (M); characterized by when detecting an obstacle object that obstructs movement of the vehicle (V) on the first route (RT1) after setting the target parking space and starting execution of the first control instruction for moving the vehicle (V) along the first route (RT1) to the set target parking space, calculating as an alternative route (RT1') a route for the vehicle (V) to leave the set target parking space and move to an evacuation space, the evacuation space being not a parking space; and the alternative control instruction being for moving the vehicle (V) along the alternative route (RT1') different from the first route (RT1). presenting the operator (M) with selection information for selecting a first mode in which the execution of the first control instruction that is set is continued or a second mode in which the control device of the vehicle (V) is caused to execute an alternative control instruction for moving the vehicle (V); and causing the control device to execute the first control instruction or the alternative control instruction in accordance with selection input information from the operator (M); characterized by when detecting an obstacle object that obstructs movement of the vehicle (V) on the first route (RT1) after setting the target parking space and starting execution of the first control instruction for moving the vehicle (V) along the first route (RT1) to the set target parking space, calculating as an alternative route (RT1') a route for the vehicle (V) to leave the set target parking space and move to an evacuation space, the evacuation space being not a parking space; and the alternative control instruction being for moving the vehicle (V) along the alternative route (RT1') different from the first route (RT1).
A process for in vitro cell-free production of closed linear DNA comprising: - amplifying DNA from a DNA template comprising more than one protelomerase target sequence, and - contacting said amplified DNA with at least one protelomerase under conditions promoting production of closed linear DNA. - amplifying DNA from a DNA template comprising more than one protelomerase target sequence, and - contacting said amplified DNA with at least one protelomerase under conditions promoting production of closed linear DNA.
Magnetostrictive position sensor according to the run time principle of a mechanical-elastic density wave with - a waveguide unit with a magnetoelastic waveguide , - a position-imparting encoder magnet which can be moved without contact along the waveguide in the direction in which it extends - a detector unit arranged at a defined longitudinal position of the waveguide unit with a detector coil embodied as a flat coil and an electronic evaluation circuit , wherein - the detector coil is positioned in or on a semiconductor substrate of the detector unit , - the electronic evaluation circuit is positioned in or on the same semiconductor substrate as the detector coil , and characterized In that - the semiconductor substrate is a semiconductor chip which is formed and mounted as a bare chip. - a waveguide unit with a magnetoelastic waveguide , - a position-imparting encoder magnet which can be moved without contact along the waveguide in the direction in which it extends - a detector unit arranged at a defined longitudinal position of the waveguide unit with a detector coil embodied as a flat coil and an electronic evaluation circuit , - the detector coil is positioned in or on a semiconductor substrate of the detector unit , - the electronic evaluation circuit is positioned in or on the same semiconductor substrate as the detector coil , and - the semiconductor substrate is a semiconductor chip which is formed and mounted as a bare chip.
A separation device including a separation instrument and a container , the separation instrument being configured to separate a gaseous substance from a solution contained in the container , the separation instrument being a cylindrical columnar member and comprising: a first end ; a second end ; and a side surface provided between the first end and the second end , wherein a plurality of sloped gas introduction grooves configured to swirl a gas and introduce the gas into the container are formed on the side surface between the first end and the second end , wherein a cross-sectional area of the grooves is 0.4 to 10% of a cross-sectional area of the separation instrument , a discharge hole configured to discharge the gaseous substance separated from the solution together with the gas is formed between a center portion of the second end and a center portion of the first end , wherein a cross-sectional area of the discharge hole is the same as or larger than the cross-sectional area of the grooves , and the side surface is configured to contact an inner peripheral surface of the container in a region between the first end and the second end , wherein the entire side surface except for the grooves is in contact with the inner peripheral surface of the container . a first end ; a second end ; and a side surface provided between the first end and the second end , wherein a plurality of sloped gas introduction grooves configured to swirl a gas and introduce the gas into the container are formed on the side surface between the first end and the second end , wherein a cross-sectional area of the grooves is 0.4 to 10% of a cross-sectional area of the separation instrument , a discharge hole configured to discharge the gaseous substance separated from the solution together with the gas is formed between a center portion of the second end and a center portion of the first end , wherein a cross-sectional area of the discharge hole is the same as or larger than the cross-sectional area of the grooves , and the side surface is configured to contact an inner peripheral surface of the container in a region between the first end and the second end , wherein the entire side surface except for the grooves is in contact with the inner peripheral surface of the container .
Combustion plant , having a combustion chamber for burning a fuel, wherein combustion residues of the fuel burnt in the combustion chamber can be fed via an outlet of the combustion chamber to a crusher for comminuting the combustion residues , and wherein at least one disturbance body remover is arranged in a conveying path of the combustion residues , by means of said at least one disturbance body remover disturbance bodies being carried in the combustion residues and cannot be comminuted by the crusher are removable from the conveying path via a disturbance body removal opening , characterized in that the at least one disturbance body remover having at least one first crushing element of the crusher , wherein the combustion residues are crushable with the at least one first crushing element and wherein the at least one first crushing element is movable to open the disturbance body remover opening .
A system for the individual identification of a plurality of maintenance-relevant items , wherein each item comprises a component (2.0) or a plurality of different components (2.1, 2.2, ..., 2.n), for the targeted retrieval of information concerning the individual items and concerning the component (2.0) or concerning at least some of the components (2.1, 2.2, ..., 2.n) of the respective items , and, where applicable, to trigger an action, wherein the system comprises - a passive NFC TAG with an NFC antenna (3.1), an NFC transponder chip (3.2) and a matrix (3.3), wherein the NFC antenna (3.1) and the NFC-transponder chip (3.2) are welded into the matrix (3.3), - an NFC-enabled mobile electronic device , in particular, a smartphone or tablet, and - an external server , wherein, in a database stored on the server , at least one piece of information concerning each item , the component (2.0) and/or at least a part of the components (2.1, 2.2, ..., 2.n) of the respective item is stored, and on the NFC TAG and/or on the mobile electronic device , a software is stored, using which the database stored on the server can be accessed with the mobile electronic device , characterized in that a) the NFC-TAG is attached to the surface of the item and/or component (2.0, 2.1, 2.2, ..., 2.n) and the NFC-TAG is connected to the component (2.0) or to at least one component (2.1, 2.2, ..., 2.n) of an item , in particular, being screwed, riveted and/or glued, b) an anti-static material is arranged in at least one NFC TAG and/or between at least one NFC TAG and one component (2.0, 2.1, 2.2, ..., 2.n), and c) each NFC TAG for the respective item to which the NFC TAG is connected comprises an individual identifier, wherein the NFC TAG uniquely identifies the respective item and/or the component (2.0) or at least a part of the components (2.1, 2.2, ..., 2.n) of the respective item . - a passive NFC TAG with an NFC antenna (3.1), an NFC transponder chip (3.2) and a matrix (3.3), wherein the NFC antenna (3.1) and the NFC-transponder chip (3.2) are welded into the matrix (3.3), - an NFC-enabled mobile electronic device , in particular, a smartphone or tablet, and - an external server , a) the NFC-TAG is attached to the surface of the item and/or component (2.0, 2.1, 2.2, ..., 2.n) and the NFC-TAG is connected to the component (2.0) or to at least one component (2.1, 2.2, ..., 2.n) of an item , in particular, being screwed, riveted and/or glued, b) an anti-static material is arranged in at least one NFC TAG and/or between at least one NFC TAG and one component (2.0, 2.1, 2.2, ..., 2.n), and c) each NFC TAG for the respective item to which the NFC TAG is connected comprises an individual identifier, wherein the NFC TAG uniquely identifies the respective item and/or the component (2.0) or at least a part of the components (2.1, 2.2, ..., 2.n) of the respective item .
A data storage device comprising: a processor ; a memory, storing instructions, which when executed by the processor , causes the processor to perform operations comprising: receiving a first data value for storage at a specified location on the data storage device ; applying an error correction code to the first data value; determining a probability that placement of the first error-corrected data value at the specified location will cause interference with other data stored at other locations on the data storage device ; in the case that the probability is greater than a threshold probability, changing the first error-corrected data value to a second data value, the second data value reducing the probability of causing interference with the other data stored at the other locations; and writing the second data value to the data storage device at the specified location. a processor ; a memory, storing instructions, which when executed by the processor , causes the processor to perform operations comprising: receiving a first data value for storage at a specified location on the data storage device ; applying an error correction code to the first data value; determining a probability that placement of the first error-corrected data value at the specified location will cause interference with other data stored at other locations on the data storage device ; in the case that the probability is greater than a threshold probability, changing the first error-corrected data value to a second data value, the second data value reducing the probability of causing interference with the other data stored at the other locations; and writing the second data value to the data storage device at the specified location. receiving a first data value for storage at a specified location on the data storage device ; applying an error correction code to the first data value; determining a probability that placement of the first error-corrected data value at the specified location will cause interference with other data stored at other locations on the data storage device ; in the case that the probability is greater than a threshold probability, changing the first error-corrected data value to a second data value, the second data value reducing the probability of causing interference with the other data stored at the other locations; and writing the second data value to the data storage device at the specified location.
A method of metal or alloy casting, comprising: a. introducing a molten material into a mould such that the molten material flows out of the mould ; b. subsequently, determining that a predetermined temperature of the mould is achieved and in response preventing the molten material from flowing out of the mould such that the molten material at least partially fills the mould . a. introducing a molten material into a mould such that the molten material flows out of the mould ; b. subsequently, determining that a predetermined temperature of the mould is achieved and in response preventing the molten material from flowing out of the mould such that the molten material at least partially fills the mould .
A method for verifying at runtime of a hardware-application component a current configuration setting of an execution environment provided by a configurable hardware module , wherein the execution environment is used for execution of at least one hardware-application comprising the steps of: Receiving (S1) by the configurable hardware module a hardware-application , wherein the received hardware-application comprises configuration data describing an instantiation as the hardware-application component on the configurable hardware module ; Instantiating (S2) the received hardware-application as the hardware-application component in the execution environment of the configurable hardware module ; Determining (S3) by the instantiated hardware-application component at runtime the current configuration setting of the execution environment provided by the configurable hardware module ; and Verifying (S4) by the instantiated hardware-application component the determined current configuration setting of the execution environment of the instantiated hardware-application component as admissible for execution of the instantiated hardware-application component if the determined current configuration setting of the execution environment matches an initial configuration setting of the execution environment at runtime of the hardware-application component , wherein the initial configuration setting is determined while executing the instantiated hardware-application component the first time in the execution environment of the configurable hardware module , and characterized in that the initial configuration setting comprises information of the specific and unique design identifier of the configurable hardware module . Receiving (S1) by the configurable hardware module a hardware-application , wherein the received hardware-application comprises configuration data describing an instantiation as the hardware-application component on the configurable hardware module ; Instantiating (S2) the received hardware-application as the hardware-application component in the execution environment of the configurable hardware module ; Determining (S3) by the instantiated hardware-application component at runtime the current configuration setting of the execution environment provided by the configurable hardware module ; and Verifying (S4) by the instantiated hardware-application component the determined current configuration setting of the execution environment of the instantiated hardware-application component as admissible for execution of the instantiated hardware-application component if the determined current configuration setting of the execution environment matches an initial configuration setting of the execution environment at runtime of the hardware-application component , wherein the initial configuration setting is determined while executing the instantiated hardware-application component the first time in the execution environment of the configurable hardware module , and characterized in that the initial configuration setting comprises information of the specific and unique design identifier of the configurable hardware module .
Method for performing a safety analysis of an integrated circuit based on a safety-specific design structural analysis and cone of influence comprising: generating with a processor a computed first set of basic design elements by intersecting two transitive cones of influence , wherein a first cone of influence is a transitive fanin cone of influence starting from at least one first point , corresponding to at least one TO element, and a second cone of influence is a transitive fanout cone of influence starting from at least one second point , corresponding to at least one FROM element, wherein the second cone of influence overlays the first cone of influence, identifying, by the processor, all basic design elements which are in the direct fanout of the first set of basic design elements and are not the first point or direct fanout of the first point and which are not protected by the safety mechanism.
A vehicle comprising a frame provided with at least a pair of side members and a rear axle , said vehicle comprising a suspension system connecting said rear axle to said side members , said suspension system comprising a left side and a right side , each comprising an axle-holder assembly , a bellows , and a leaf spring , said leaf spring comprising a first end connected to one of said side members , a second end , and an intermediate portion , ranging between said ends , said bellows being connected to said second end and to one of said side members , said axle-holder assembly comprising a plurality of plates interposed between said axle and said leaf spring and retention means configured to keep said plates packed under a compression force with said axle and said leaf spring , characterized by said left side and said right side further comprising a first and a second bar, said first bar comprising a first end connected to one of said side members and a second end connected to said axle-holder assembly , said second bar comprising a first portion connected to one of said side members and a second end connected to said axle , said first and second bars defining respective angles (β, γ) with respect to a horizontal axis, said second bars of said left and right sides defining an angle (α), between one another, with respect to a longitudinal axis (A) of said vehicle, said suspension system further comprising a torsion bar connected to one of said plates and to said first bars .
An optical device, comprising: a flow channel that defines a trajectory of an object; a first polarizer configured to receive light from an object as the object moves relative to the optical device along the trajectory , the first polarizer arranged to polarize the light along a first polarization direction; a waveplate optically coupled to receive light from the first polarizer , the waveplate having an optical retardance that varies as a function of position in the direction of the trajectory and having a slow axis at a first angle to the first polarization direction; and a second polarizer optically coupled to receive light from the waveplate the second polarizer configured to polarize light received from the waveplate along a second polarization direction; and a detector array comprising one or more detector elements, the detector array optically coupled to receive light from the second polarizer , each detector element of the detector array configured to provide an electrical output signal that varies according to intensity of the light received from the second polarizer , the intensity of the light being a function of the position of the object along the trajectory and of the optical spectrum of the light emanating from the object. a flow channel that defines a trajectory of an object; a first polarizer configured to receive light from an object as the object moves relative to the optical device along the trajectory , the first polarizer arranged to polarize the light along a first polarization direction; a waveplate optically coupled to receive light from the first polarizer , the waveplate having an optical retardance that varies as a function of position in the direction of the trajectory and having a slow axis at a first angle to the first polarization direction; and a second polarizer optically coupled to receive light from the waveplate the second polarizer configured to polarize light received from the waveplate along a second polarization direction; and a detector array comprising one or more detector elements, the detector array optically coupled to receive light from the second polarizer , each detector element of the detector array configured to provide an electrical output signal that varies according to intensity of the light received from the second polarizer , the intensity of the light being a function of the position of the object along the trajectory and of the optical spectrum of the light emanating from the object.
A safe for installation into a Point of Sale terminal or a Self-Service Terminal, the safe comprising: walls; and at least one of the walls including a gap and the gap including a safe protection mechanism ; characterised in that the safe protection mechanism is one of: woven fabric comprising a warp and weft woven fabric or a weft knitted fabric or a warp knitted fabric; a thin film having two different chemicals separated by the thin film that when mixed together produce a hard foam; and a chemical mixture (214 or 216) under pressure that when pressure is eased and/or air interacts with the chemical mixture (214 or 216) a hard foam is produced. walls; and at least one of the walls including a gap and the gap including a safe protection mechanism ; characterised in that the safe protection mechanism is one of: woven fabric comprising a warp and weft woven fabric or a weft knitted fabric or a warp knitted fabric; a thin film having two different chemicals separated by the thin film that when mixed together produce a hard foam; and a chemical mixture (214 or 216) under pressure that when pressure is eased and/or air interacts with the chemical mixture (214 or 216) a hard foam is produced. woven fabric comprising a warp and weft woven fabric or a weft knitted fabric or a warp knitted fabric; a thin film having two different chemicals separated by the thin film that when mixed together produce a hard foam; and a chemical mixture (214 or 216) under pressure that when pressure is eased and/or air interacts with the chemical mixture (214 or 216) a hard foam is produced.
A peptide comprising the amino acid sequence of SEQ ID No. 56, and a pharmaceutical acceptable salt thereof, wherein said peptide has an overall length of up to 30 amino acids, and wherein said peptide has the ability to bind to a molecule of the human major histocompatibility complex (MHC) class-I and is capable, when bound to MHC, of being recognized by CD8 T cells.