mhurhangee/patent-ind-claim-en huggingface dataset:
A diagnosis aiding apparatus, comprising: - a display; - a memory configured to store instructions; and - a processor that, upon executing the stored instructions, is configured to: * control the display to display a reference cross-section (20; 40; 70) of a 3D image obtainable from a measuring device, * control the display to display diagnosis information (30a, 31a; 50a; 80a, 81c) corresponding to the reference cross-section (20; 40; 70) within the cross section, and * control the display to display, within the displayed reference cross-section (20; 40; 70), diagnosis information (30b, 31b, 30c, 31c; 50b, 50c, 51c; 80b, 80c) corresponding to a different cross-section (60; 90) other than the displayed reference cross-section (20; 40; 70), CHARACTERISED IN THAT the processor is further configured to, in response to input of a user's selection of diagnosis information (50c; 80c) corresponding to the different cross-section (60; 90), control the different cross-section (60; 90) to be displayed for a predetermined length of time to allow a user's analysis of a lesion therein without physically moving the measuring device, and control the reference cross-section (20; 40; 70) to be displayed again after the predetermined length of time has lapsed. - a display; - a memory configured to store instructions; and - a processor that, upon executing the stored instructions, is configured to: * control the display to display a reference cross-section (20; 40; 70) of a 3D image obtainable from a measuring device, * control the display to display diagnosis information (30a, 31a; 50a; 80a, 81c) corresponding to the reference cross-section (20; 40; 70) within the cross section, and * control the display to display, within the displayed reference cross-section (20; 40; 70), diagnosis information (30b, 31b, 30c, 31c; 50b, 50c, 51c; 80b, 80c) corresponding to a different cross-section (60; 90) other than the displayed reference cross-section (20; 40; 70), * control the display to display a reference cross-section (20; 40; 70) of a 3D image obtainable from a measuring device, * control the display to display diagnosis information (30a, 31a; 50a; 80a, 81c) corresponding to the reference cross-section (20; 40; 70) within the cross section, and * control the display to display, within the displayed reference cross-section (20; 40; 70), diagnosis information (30b, 31b, 30c, 31c; 50b, 50c, 51c; 80b, 80c) corresponding to a different cross-section (60; 90) other than the displayed reference cross-section (20; 40; 70),
A chamber, with a shape memory for the pressure adjustment of tyres, that is connected at one end to the medium delivery point and at the other end to the source of the medium, is characterised by the feature that fibres are installed across at least a part of the wall of the chamber (K) at a distance of between 0.001 and 200 mm, which connect the opposite walls of the chamber (K).
Method for producing a component which consists at least in portions of a rare earth metal-doped quartz glass, comprising the method steps: (a) (a) providing an intermediate product containing voids and consisting of a SiO 2 raw material doped with rare earth metal, (b) introducing the intermediate product into a sinter mold with an interior bordered by a carbonaceous mold wall, (c) melting the intermediate product into the component by gas pressure sintering at a maximum temperature above 1500°C, a shield being arranged between the mold wall and the intermediate product, characterized in that a bulk material of amorphous SiO 2 particles with a layer thickness of at least 2 mm is used as the shield, the softening temperature thereof being at least 20°C higher than the softening temperature of the doped SiO 2 raw material, and the bulk material being gas-permeable at the beginning of the melting of the intermediate product according to the method step, and the bulk material sintering during melting into an outer layer that is gas-tight to a pressure gas, and the bulk material has a gas permeability which is defined by a Darcy coefficient between 0.8x10 -11 m 2 and 3x10 -11 m 2 . (a) (a) providing an intermediate product containing voids and consisting of a SiO 2 raw material doped with rare earth metal, (b) introducing the intermediate product into a sinter mold with an interior bordered by a carbonaceous mold wall, (c) melting the intermediate product into the component by gas pressure sintering at a maximum temperature above 1500°C, a shield being arranged between the mold wall and the intermediate product,
A method carried out in a node operable in a vehicle-to-anything-you-can-imagine, V2X, system, comprising: generating a tag associated with a V2X data packet at a first layer, the generated tag indicating one or more parameters related to transmission of the associated V2X data packet; signaling the tag from the first layer to a lower layer; mapping , at the lower layer, the associated V2X data packet to a logical channel based on the one or more parameters indicated by the tag; and selecting one or more resources for transmission of the associated V2X data packet based on the mapping of the associated V2X data packet to the logical channel, wherein the first layer is an application layer. generating a tag associated with a V2X data packet at a first layer, the generated tag indicating one or more parameters related to transmission of the associated V2X data packet; signaling the tag from the first layer to a lower layer; mapping , at the lower layer, the associated V2X data packet to a logical channel based on the one or more parameters indicated by the tag; and selecting one or more resources for transmission of the associated V2X data packet based on the mapping of the associated V2X data packet to the logical channel, wherein the first layer is an application layer.
A cutting tool (10; 30) comprising: a land (16; 36) made of a first material having a lead (18; 38); and the land being provided with a vein (12; 32) made of a second material having a cutting edge (14; 34), wherein the vein (12; 32) is disposed at an angle to the central axis of the cutting tool (10; 30), such that a portion of the first material forms a shield (20; 40) that extends along the lead (18; 38) in front of and adjacent to the vein (12; 32) to reduce the overall length of the exposed cutting edge (14; 34) of the vein (12; 32). a land (16; 36) made of a first material having a lead (18; 38); and the land being provided with a vein (12; 32) made of a second material having a cutting edge (14; 34), wherein the vein (12; 32) is disposed at an angle to the central axis of the cutting tool (10; 30), such that a portion of the first material forms a shield (20; 40) that extends along the lead (18; 38) in front of and adjacent to the vein (12; 32) to reduce the overall length of the exposed cutting edge (14; 34) of the vein (12; 32).
A method of forming solid beads, the method comprising: Providing a first liquid comprising a solute, a solvent and a target material which is desired to be encapsulated within the solid beads, the solute comprising a polymer; Providing a liquid droplet generator operable to generate liquid droplets; Causing the liquid droplet generator to form liquid droplets of the first liquid; Passing the liquid droplets through a gas into contact with a second liquid so as to cause the solvent to exit the droplets, thus forming solid beads; the solubility of the solvent in the second liquid being at least 5g of solvent per 100ml of second liquid, the solvent being substantially miscible with the second liquid; wherein the second liquid is provided as a flow and the method comprises contacting the liquid droplets with the flow of second liquid; characterised in that : the concentration of polymer in the first liquid is at least 10% w/v, 'w' being the weight of the polymer and 'v' being the volume of the solvent, the target material comprises a pharmaceutically active agent, or is a precursor of a pharmaceutically active agent, and the liquid droplet generator comprises a piezoelectric component operable to generate liquid droplets. Providing a first liquid comprising a solute, a solvent and a target material which is desired to be encapsulated within the solid beads, the solute comprising a polymer; Providing a liquid droplet generator operable to generate liquid droplets; Causing the liquid droplet generator to form liquid droplets of the first liquid; Passing the liquid droplets through a gas into contact with a second liquid so as to cause the solvent to exit the droplets, thus forming solid beads; the solubility of the solvent in the second liquid being at least 5g of solvent per 100ml of second liquid, the solvent being substantially miscible with the second liquid; wherein the second liquid is provided as a flow and the method comprises contacting the liquid droplets with the flow of second liquid; characterised in that : the concentration of polymer in the first liquid is at least 10% w/v, 'w' being the weight of the polymer and 'v' being the volume of the solvent, the target material comprises a pharmaceutically active agent, or is a precursor of a pharmaceutically active agent, and the liquid droplet generator comprises a piezoelectric component operable to generate liquid droplets. the concentration of polymer in the first liquid is at least 10% w/v, 'w' being the weight of the polymer and 'v' being the volume of the solvent, the target material comprises a pharmaceutically active agent, or is a precursor of a pharmaceutically active agent, and the liquid droplet generator comprises a piezoelectric component operable to generate liquid droplets.
Method for controlling functions of a motor vehicle or assemblies contained therein, in which the movement or gesture of the hand and/or the fingers and/or the thumb is captured by way of a sensor unit arranged in the vicinity of the steering wheel and, upon correlation of the movements or gestures with predefined movements or gestures, this is evaluated as an actuation of at least one virtual operating element that is real yet not present, characterized in that the at least one virtual operating element is defined on the steering wheel and in that the movement or gestures are evaluated in connection with the steering wheel by way of the sensor unit , which is directed at the steering wheel , and an evaluation unit such that - the sensor unit captures movements or gestures of the hand and/or the fingers and/or the thumb that are performed in contact with the real steering wheel in at least one region predefined on the steering wheel and passes them on to an evaluation unit , - the evaluation unit compares captured movements or gestures performed relative to the steering wheel to at least one predefined stored pattern and - the evaluation unit triggers a predefined switching step in the case of a predefined match to the at least one pattern. - the sensor unit captures movements or gestures of the hand and/or the fingers and/or the thumb that are performed in contact with the real steering wheel in at least one region predefined on the steering wheel and passes them on to an evaluation unit , - the evaluation unit compares captured movements or gestures performed relative to the steering wheel to at least one predefined stored pattern and - the evaluation unit triggers a predefined switching step in the case of a predefined match to the at least one pattern.
A solar cell module comprising: a plurality of solar cells connected with one another in such a manner that electrodes formed on surfaces of neighboring solar cells are connected with each other through a wiring member , wherein the wiring member includes a corrugated portion formed on at least one side, a vertex portion of the corrugated portion of the wiring member bites into the electrode , and the solar cells and the wiring member are bonded to each other by a resin ; characterized in that the corrugated portion is harder than a surface of the electrode.
Cutterbar for attaching to the height-adjustable feeder housing of a harvesting machine with a frame , an attachment device connected to the frame for attaching the cutterbar to the harvesting machine , cutting elements , conveyor devices and drives , at least one distance sensor arranged on the cutterbar for determining the distance of the cutterbar from the ground, and an interface via which signals relevant to height control can be transmitted to a control or regulating device arranged on the harvesting machine , wherein the cutterbar has at least one additional load sensor which measures the load with which the cutterbar loads the feeder housing , characterized in that the interface is arranged upstream of an evaluation device to which the sensor values measured by the distance sensor are transmitted via a connecting line , the sensor values measured by the load sensor are also transmitted to the evaluation device via a connecting line , and the evaluation device has a program which uses suitable programming to calculate a signal relevant to height control from the transmitted sensor values of the distance sensor and the load sensor , which signal is transmitted to the interface .
A steering system comprising an electronic control unit (4; 40) configured to: set a ratio of a turning angle change amount with respect to a steering angle change amount in a first steering angle area to be larger than the ratio of the turning angle change amount with respect to the steering angle change amount in a second steering angle area, a steering angle of the second steering angle area being smaller than the steering angle of the first steering angle area; and perform a first process of setting a delay degree of a change in turning angle with respect to a change in steering angle in the first steering angle area to be larger than the delay degree of the change in turning angle with respect to the change in steering angle in the second steering angle area regardless of a turning-over operation or a turning-back operation. set a ratio of a turning angle change amount with respect to a steering angle change amount in a first steering angle area to be larger than the ratio of the turning angle change amount with respect to the steering angle change amount in a second steering angle area, a steering angle of the second steering angle area being smaller than the steering angle of the first steering angle area; and perform a first process of setting a delay degree of a change in turning angle with respect to a change in steering angle in the first steering angle area to be larger than the delay degree of the change in turning angle with respect to the change in steering angle in the second steering angle area regardless of a turning-over operation or a turning-back operation.
A method of transmitting a sounding reference signal, SRS, the method performed by a user equipment in a wireless communication system supporting multiple antenna ports and a plurality of numerologies, the method comprising: identifying whether a periodic SRS transmission or a semi-persistent SRS transmission is configured; calculating, in case that the periodic SRS transmission or the semi-persistent SRS transmission is configured, an SRS transmission count based on a slot number within a frame for a numerology of the plurality of numerologies, a number of slots per frame for the numerology, an SRS periodicity, a number of SRS symbols, an SRS repetition factor and a system frame number, and identifying a frequency position for the SRS mapped to at least one antenna port of the multiple antenna ports based on the SRS transmission count; and transmitting the SRS, by using frequency hopping based on the frequency position for the SRS mapped to the at least one antenna port. identifying whether a periodic SRS transmission or a semi-persistent SRS transmission is configured; calculating, in case that the periodic SRS transmission or the semi-persistent SRS transmission is configured, an SRS transmission count based on a slot number within a frame for a numerology of the plurality of numerologies, a number of slots per frame for the numerology, an SRS periodicity, a number of SRS symbols, an SRS repetition factor and a system frame number, and identifying a frequency position for the SRS mapped to at least one antenna port of the multiple antenna ports based on the SRS transmission count; and transmitting the SRS, by using frequency hopping based on the frequency position for the SRS mapped to the at least one antenna port.
A flame-retardant article comprising a polyolefin substrate having additives incorporated therein, the additives comprising: a phosphonate ester of formula wherein R 1 and R 2 are independently selected from a group consisting of alkyl, optionally substituted alkyl, benzyl, optionally substituted benzyl, phenyl, optionally substituted phenyl, naphthyl, and optionally substituted naphthyl, a synergist comprising an N-alkoxy hindered amine, and a melamine cyanurate, wherein the N-alkoxy hindered amine Is a compound of formula wherein X is a group of formula Y is -(CH 2 ) 6 -, each R is -OC 3 H 7 and n is an integer from 1 to 5, or a compound of formula wherein R 3 is n-propyl and X 1 is n-butyl. a phosphonate ester of formula wherein R 1 and R 2 are independently selected from a group consisting of alkyl, optionally substituted alkyl, benzyl, optionally substituted benzyl, phenyl, optionally substituted phenyl, naphthyl, and optionally substituted naphthyl, a synergist comprising an N-alkoxy hindered amine, and a melamine cyanurate, wherein the N-alkoxy hindered amine Is a compound of formula wherein X is a group of formula Y is -(CH 2 ) 6 -, each R is -OC 3 H 7 and n is an integer from 1 to 5, or a compound of formula wherein R 3 is n-propyl and X 1 is n-butyl.
Wireless connector assembly with at least a first and a second component and with an adjustment aid , wherein at least said second component is implantable, wherein the adjustment aid comprises for aligning the at least one first and the second component relative to one another: a first adjustment electrode assembly which comprises at least one excitation electrode and at least one evaluation electrode and is arranged on said first component, a second adjustment electrode assembly which comprises at least one reception electrode and at least one transmission electrode and is arranged on said second component, a control and evaluation circuit which is connected to said first adjustment electrode assembly , wherein said control and evaluation circuit can be operated to supply said excitation electrode with an excitation voltage and to tap a measurement signal at said evaluation electrode , said measurement signal depending on a degree of overlap between said first and said second adjustment electrode assembly. a first adjustment electrode assembly which comprises at least one excitation electrode and at least one evaluation electrode and is arranged on said first component, a second adjustment electrode assembly which comprises at least one reception electrode and at least one transmission electrode and is arranged on said second component, a control and evaluation circuit which is connected to said first adjustment electrode assembly , wherein said control and evaluation circuit can be operated to supply said excitation electrode with an excitation voltage and to tap a measurement signal at said evaluation electrode , said measurement signal depending on a degree of overlap between said first and said second adjustment electrode assembly.
Method for attaching spacer elements to a galvanic cell , the method comprising the following: - providing a galvanic cell , which comprises one or more cell rolls ; - applying one or more spacer elements of a pourable, sprayable and/or printable material to a cell housing of the galvanic cell , wherein the one or more spacer elements is/are applied to the cell housing of the galvanic cell by means of one or more of the following application processes: - by means of a pouring process; - by means of a spraying process; - by means of a printing process, wherein the one or more spacer elements is/are applied to the cell housing of the galvanic cell by an application device. - providing a galvanic cell , which comprises one or more cell rolls ; - applying one or more spacer elements of a pourable, sprayable and/or printable material to a cell housing of the galvanic cell , wherein the one or more spacer elements is/are applied to the cell housing of the galvanic cell by means of one or more of the following application processes: - by means of a pouring process; - by means of a spraying process; - by means of a printing process, - by means of a pouring process; - by means of a spraying process; - by means of a printing process, wherein the one or more spacer elements is/are applied to the cell housing of the galvanic cell by an application device.
A method for providing classification of encrypted network traffic, the method comprising: a) classifying , by a first classifier of a device operating at a first portion of a network stack of the device, an encrypted packet received via a network port; b) including with the packet, by the first classifier, an application identifier corresponding to a first predetermined application identified by the classification; c) receiving , by a second classifier operating at a second portion of the network stack of the device above the first portion, the application identifier and the encrypted packet, characterized by : d) reclassifying , by the second classifier, the encrypted packet received from the first classifier to a second predetermined application based on decrypted content of the encrypted packet; e) replacing, by the second classifier, the application identifier with a second application identifier of the second predetermined application if the second classifier determines the second predetermined application is more granular than the first predetermined application; or (f) maintaining the application identifier of the first classifier if the second classifier determines that the first predetermined application is more granular than the second predetermined application. a) classifying , by a first classifier of a device operating at a first portion of a network stack of the device, an encrypted packet received via a network port; b) including with the packet, by the first classifier, an application identifier corresponding to a first predetermined application identified by the classification; c) receiving , by a second classifier operating at a second portion of the network stack of the device above the first portion, the application identifier and the encrypted packet, characterized by : d) reclassifying , by the second classifier, the encrypted packet received from the first classifier to a second predetermined application based on decrypted content of the encrypted packet; e) replacing, by the second classifier, the application identifier with a second application identifier of the second predetermined application if the second classifier determines the second predetermined application is more granular than the first predetermined application; or (f) maintaining the application identifier of the first classifier if the second classifier determines that the first predetermined application is more granular than the second predetermined application. d) reclassifying , by the second classifier, the encrypted packet received from the first classifier to a second predetermined application based on decrypted content of the encrypted packet; e) replacing, by the second classifier, the application identifier with a second application identifier of the second predetermined application if the second classifier determines the second predetermined application is more granular than the first predetermined application; or (f) maintaining the application identifier of the first classifier if the second classifier determines that the first predetermined application is more granular than the second predetermined application.