mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal resin film that is disposed to cover an outer peripheral surface of a portion of a metal terminal electrically connected to a power storage device body constituting a power storage device, the terminal resin film comprising: at least seven layers, wherein the at least seven layers among layers constituting the terminal resin film each of which corresponds to at least one layer selected from a group consisting of a layer A, a layer B, a layer C, and a layer D indicated below, and wherein at least a portion of the terminal resin film has a structure in which the layer A, the layer B, the layer A, and the layer C are stacked in this order or the layer D, the layer A, the layer B, and the layer A are stacked in this order, where, the layer A is formed from a resin composition including an acid-modified polyolefin resin and having a melt flow rate of 2.0 to 50 g/10 mins at 230°C, the layer B is formed from a resin composition including a polyolefin resin and having a melt flow rate of 0.05 g/10 mins or more and less than 2.0 g/10 mins at 230°C, the layer C is formed from a resin composition including an unmodified polyolefin resin and having a melt flow rate of 0.05 to 50 g/10 mins at 230°C, and the layer D is an adhesive layer including a resin having a cross-linked structure. at least seven layers, wherein the at least seven layers among layers constituting the terminal resin film each of which corresponds to at least one layer selected from a group consisting of a layer A, a layer B, a layer C, and a layer D indicated below, and wherein at least a portion of the terminal resin film has a structure in which the layer A, the layer B, the layer A, and the layer C are stacked in this order or the layer D, the layer A, the layer B, and the layer A are stacked in this order, the layer A is formed from a resin composition including an acid-modified polyolefin resin and having a melt flow rate of 2.0 to 50 g/10 mins at 230°C, the layer B is formed from a resin composition including a polyolefin resin and having a melt flow rate of 0.05 g/10 mins or more and less than 2.0 g/10 mins at 230°C, the layer C is formed from a resin composition including an unmodified polyolefin resin and having a melt flow rate of 0.05 to 50 g/10 mins at 230°C, and the layer D is an adhesive layer including a resin having a cross-linked structure.
A gas turbine engine comprising: a compressor section ; a combustor section with a multiple of pre-swirlers ; and a diffuser case module with a multiple of struts within an annular flow path from said compressor section to said combustor section , at least one of said multiple of struts defines a pre-diffuser inlet configured to tap a pre-diffuser airflow as a pre-defined temperature tailored airflow, characterised in that said pre-diffuser inlet is in communication with said annular flow path; wherein said gas turbine engine further comprises: a manifold in communication with said pre-diffuser inlet and said multiple of pre-swirlers . a compressor section ; a combustor section with a multiple of pre-swirlers ; and a diffuser case module with a multiple of struts within an annular flow path from said compressor section to said combustor section , at least one of said multiple of struts defines a pre-diffuser inlet configured to tap a pre-diffuser airflow as a pre-defined temperature tailored airflow, characterised in that said pre-diffuser inlet is in communication with said annular flow path; wherein said gas turbine engine further comprises: a manifold in communication with said pre-diffuser inlet and said multiple of pre-swirlers .
A quick coupling for establishing a separable connection in a fluid line with a coupling body , an insertion part , a holder and a safety element , wherein the coupling body has a through bore , wherein the insertion part introduced into the through bore can be preferably reversibly fixed in the through bore with the holder , wherein the through bore extends from an insertion opening of the coupling body up to an outlet opening , wherein the holder has a ring corpus , wherein the safety element has a ring body , wherein the ring corpus and the ring body circulate around the insertion part and/or the coupling body , and wherein the holder has two activating devices , which lie opposite each other or diametrically on the ring corpus or on the holder , wherein the holder is designed in such a way that the holder formed by the ring corpus is pressed flat given a force exerted inwardly in a radial direction on the activating devices , so that the distance between the activating device and the central axis is diminished, wherein the safety element can be shifted from a free position into a secured position in an axial direction in relation to the through bore if the insertion part is secured in the through bore with the holder , characterized in that the free position represents an end of an axial displacement path on the outlet opening side, wherein the safety element can be shifted from the free position into the safety position along this displacement path.
An autonomous driving vehicle , comprising at least one processor circuitry arranged to control a lateral position of the autonomous driving vehicle during autonomous driving of the autonomous driving vehicle , and at least one user interface arranged to receive an input indicative of an off-set of the lateral position of the autonomous driving vehicle from a user of the autonomous driving vehicle , wherein the processor circuitry is arranged to receive, from the at least one user interface , information regarding the off-set of the lateral position of the autonomous driving vehicle during driving in the lateral position based on a default lateral position of the autonomous driving vehicle and to adjust the lateral position of the vehicle based on the off-set information, characterized in that the user interface is arranged to communicate a geographical position or a driving scenario of the autonomous driving vehicle to a cloud service and receive, from the cloud service , information indicative of an off-set of the lateral position, wherein the off-set information is based on a plurality of drivers desired lateral positions for the given geographical position or the driving scenario and the processor circuitry is arranged to adjust the lateral position of the autonomous driving vehicle during autonomous driving based on a combination of the default lateral position , the off-set of the lateral position and the off-set information received from the cloud service . at least one processor circuitry arranged to control a lateral position of the autonomous driving vehicle during autonomous driving of the autonomous driving vehicle , and at least one user interface arranged to receive an input indicative of an off-set of the lateral position of the autonomous driving vehicle from a user of the autonomous driving vehicle , wherein the processor circuitry is arranged to receive, from the at least one user interface , information regarding the off-set of the lateral position of the autonomous driving vehicle during driving in the lateral position based on a default lateral position of the autonomous driving vehicle and to adjust the lateral position of the vehicle based on the off-set information, characterized in that the user interface is arranged to communicate a geographical position or a driving scenario of the autonomous driving vehicle to a cloud service and receive, from the cloud service , information indicative of an off-set of the lateral position, wherein the off-set information is based on a plurality of drivers desired lateral positions for the given geographical position or the driving scenario and the processor circuitry is arranged to adjust the lateral position of the autonomous driving vehicle during autonomous driving based on a combination of the default lateral position , the off-set of the lateral position and the off-set information received from the cloud service .
A hot beverage preparing machine , where the selections regarding the beverages that could not be prepared according to the levels of components inside a container (H) are prevented from being selected by the user, comprises, - at least one sensor for sensing the level of material inside the container (H), - at least one interface for the user to select one, multiple or all of the options for at least the type, the preparation type, and the number of the beverage to be prepared, and at least one control unit characterized by - the at least one control unit being adapted to calculate the remaining material inside the container (H) according to the data supplied by the sensor , and to prevent the selections regarding the beverages which cannot be prepared according to the calculated material level from being selected on the interface by cutting the power supply of the said input means, by making the said option non-selectable or by removing the said option. - at least one sensor for sensing the level of material inside the container (H), - at least one interface for the user to select one, multiple or all of the options for at least the type, the preparation type, and the number of the beverage to be prepared, and at least one control unit characterized by - the at least one control unit being adapted to calculate the remaining material inside the container (H) according to the data supplied by the sensor , and to prevent the selections regarding the beverages which cannot be prepared according to the calculated material level from being selected on the interface by cutting the power supply of the said input means, by making the said option non-selectable or by removing the said option.
A therapy planning device for planning a thermal ablation therapy to be applied to tissue of a subject, the therapy planning device comprising: - a tissue parameter distribution providing unit configured to provide at least one tissue parameter distribution which has been generated based on a magnetic resonance scan of the tissue, - a therapy goal distribution providing unit configured to provide at least one therapy goal distribution defining a distribution of at least one parameter being indicative of a desired effect of the therapy, - a machine learning module which has been trained to output at least one therapy application parameter defining the application of the therapy based on at least one input tissue parameter distribution and at least one input therapy goal distribution, and - a therapy planning unit configured to plan the therapy by determining the at least one therapy application parameter based on the provided at least one tissue parameter distribution, the provided at least one therapy goal distribution and the trained machine learning module . - a tissue parameter distribution providing unit configured to provide at least one tissue parameter distribution which has been generated based on a magnetic resonance scan of the tissue, - a therapy goal distribution providing unit configured to provide at least one therapy goal distribution defining a distribution of at least one parameter being indicative of a desired effect of the therapy, - a machine learning module which has been trained to output at least one therapy application parameter defining the application of the therapy based on at least one input tissue parameter distribution and at least one input therapy goal distribution, and - a therapy planning unit configured to plan the therapy by determining the at least one therapy application parameter based on the provided at least one tissue parameter distribution, the provided at least one therapy goal distribution and the trained machine learning module .
A method comprising: Accessing, by a radio communication apparatus , radiomap data including location information indicating locations of plural nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of a first class, each of the plural nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of the first class being identifiable only by a locally-unique identifier, the locally unique identifier of each of the plural nodes being included in the radiomap data; Using, by the radio communication apparatus or a server , the radiomap data to determine a location within a space of the radio communication apparatus based on at least one transmission received by the radio communications apparatus from at least one of the plural nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of the first class, the at least one transmission including the locally-unique identifier of the node from which the transmission is received; wherein the locally-unique identifier of each of the nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of the first class is visible to radio communication apparatus of a first type without the radio communication apparatus of the first type having prior knowledge of the locally-unique identifier but is invisible to radio communication apparatus of a second type without the radio communication apparatus of the second type having prior knowledge of the locally-unique identifier, wherein, in particular, data for the radiomap data is created using one or more radio communication apparatuses of the first type. Accessing, by a radio communication apparatus , radiomap data including location information indicating locations of plural nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of a first class, each of the plural nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of the first class being identifiable only by a locally-unique identifier, the locally unique identifier of each of the plural nodes being included in the radiomap data; Using, by the radio communication apparatus or a server , the radiomap data to determine a location within a space of the radio communication apparatus based on at least one transmission received by the radio communications apparatus from at least one of the plural nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of the first class, the at least one transmission including the locally-unique identifier of the node from which the transmission is received; wherein the locally-unique identifier of each of the nodes (1-1 to 1-n, 2-1 to 2-n, 3-1 to 3-n) of the first class is visible to radio communication apparatus of a first type without the radio communication apparatus of the first type having prior knowledge of the locally-unique identifier but is invisible to radio communication apparatus of a second type without the radio communication apparatus of the second type having prior knowledge of the locally-unique identifier, wherein, in particular, data for the radiomap data is created using one or more radio communication apparatuses of the first type.
A decoding apparatus comprising: a gain readout unit configured to read out encoded gain values at at least two gain sample positions of a time series signal, representing an audio signal, and gain inclination values indicating inclination of the gain values; an operation unit configured to obtain at the gain sample positions, straight lines having the gain values at the gain sample positions and having inclination indicated by the gain inclination values at the gain sample positions, and obtain differences between a gain value at an intersection of the straight lines obtained for the two gain sample positions and the gain values at the two gain sample positions; and an interpolation processing unit configured to obtain a gain value at each sample position located between the two gain sample positions of the time series signal through linear interpolation or non-linear interpolation according to the differences. a gain readout unit configured to read out encoded gain values at at least two gain sample positions of a time series signal, representing an audio signal, and gain inclination values indicating inclination of the gain values; an operation unit configured to obtain at the gain sample positions, straight lines having the gain values at the gain sample positions and having inclination indicated by the gain inclination values at the gain sample positions, and obtain differences between a gain value at an intersection of the straight lines obtained for the two gain sample positions and the gain values at the two gain sample positions; and an interpolation processing unit configured to obtain a gain value at each sample position located between the two gain sample positions of the time series signal through linear interpolation or non-linear interpolation according to the differences.
An optical device comprising: a liquid lens having a curvature varying according to an applied electrical signal; an image sensor configured to convert light passed through the liquid lens to an electrical signal; an image processor configured to calculate a focus value, FV, based on the electrical signal received from the image sensor; a diopter driving unit configured to apply a voltage to the liquid lens and change the curvature of the liquid lens; a memory configured to store a data comprising a first curvature state of the liquid lens, a second curvature state corresponding to a distance to a subject after auto focusing, and an FV slope ratio; and a controller configured to calculate the FV slope ratio in the first curvature state based on the data, calculate the second curvature state of the liquid lens based on the FV slope ratio, and control the diopter driving unit to auto focus to the second curvature state, wherein the FV slope ratio (S2/S1) is a ratio of a slope (S2) of a second region of the liquid lens to a slope (S1) of a first region of the liquid lens, wherein the first region and the second region are different. a liquid lens having a curvature varying according to an applied electrical signal; an image sensor configured to convert light passed through the liquid lens to an electrical signal; an image processor configured to calculate a focus value, FV, based on the electrical signal received from the image sensor; a diopter driving unit configured to apply a voltage to the liquid lens and change the curvature of the liquid lens; a memory configured to store a data comprising a first curvature state of the liquid lens, a second curvature state corresponding to a distance to a subject after auto focusing, and an FV slope ratio; and a controller configured to calculate the FV slope ratio in the first curvature state based on the data, calculate the second curvature state of the liquid lens based on the FV slope ratio, and control the diopter driving unit to auto focus to the second curvature state, wherein the FV slope ratio (S2/S1) is a ratio of a slope (S2) of a second region of the liquid lens to a slope (S1) of a first region of the liquid lens, wherein the first region and the second region are different.
A setting adjustment tool for a magnetically adjustable device implanted in a patient, the magnetically adjustable device including a rotor having an axis of rotation (R) and at least one rotor magnet , the rotor having a range of arcuate motion within each of a plurality of selectable performance settings, and wherein the rotor has an axle which turns about the axis of rotation, the setting adjustment tool comprising: a circumference (C); a plurality of magnetic coils circumferentially distributed on the circumference; wherein each magnetic coil is operable to activate and attract or repulse the at least one rotor magnet, characterized in that at least one of the magnetic coils is movable along the circumference between a plurality of predetermined positions. a circumference (C); a plurality of magnetic coils circumferentially distributed on the circumference; wherein each magnetic coil is operable to activate and attract or repulse the at least one rotor magnet, characterized in that at least one of the magnetic coils is movable along the circumference between a plurality of predetermined positions.
A downdraft element having a first flow opening and a second flow opening , wherein the first flow opening is arranged relative to the second flow opening at an angle of 45° ≤ α ≤ 135°, preferably substantially of 90°, so that at least the average flow direction of a fluid entering the first flow opening and exiting the second flow opening or vice versa can be deflected by the angle α, wherein the downdraft element has at least one damping material receptacle and at least one damper inserted into the damping material receptacle on an inner side between the first flow opening and the second flow opening , wherein the damper is shaped in such a way that the inner side over which the fluid can flow passes substantially smoothly into the surface of the damper , characterized in that the downdraft element is formed with two shells with two shell parts , wherein the respective shell parts are preferably mirror-symmetrical, wherein the shell parts are clamped, glued, welded and/or screwed to one another.
Assembly comprising an aircraft door and an auxiliary equipment , the aircraft door and the auxiliary equipment being connected by a flexible deformable bellows comprising creases, - the door comprises a passing through hole and a support suitable to be joined to the first end of the bellows , - the auxiliary equipment comprises a support suitable to be joined to the second end of the bellows and a projecting part , the projecting part suitable to have elevation movement and/or azimuth movement, and the projecting part crossing the interior of the bellows and the hole of the door and protruding out of the door , and in that - at both ends of the bellows there is a clamp that joins and tightens each end of the bellows with the corresponding support , such that there is a fixed joint between the first end of the bellows and the door and a movable joint between the second end of the bellows and the auxiliary equipment . - the door comprises a passing through hole and a support suitable to be joined to the first end of the bellows , - the auxiliary equipment comprises a support suitable to be joined to the second end of the bellows and a projecting part , the projecting part suitable to have elevation movement and/or azimuth movement, and the projecting part crossing the interior of the bellows and the hole of the door and protruding out of the door , and in that - at both ends of the bellows there is a clamp that joins and tightens each end of the bellows with the corresponding support ,