mhurhangee/patent-ind-claim-en huggingface dataset:
A plasma generating apparatus comprising: a pair of electrodes configured to generate plasma by discharge; a first supply path configured to supply processing gas between the pair of electrodes ; a second supply path configured to supply processing gas along an outer periphery of each of the pair of electrodes ; and a suction path configured to suck the processing gas supplied along an outer peripheral surface of each of the pair of electrodes via the second supply path characterized by: a pair of enclosure members configured to enclose at least an end portion of a discharge-side of each of the pair of electrodes , and wherein the second supply path is configured to supply processing gas to an inside of each of the pair of enclosure members , and the first supply path is configured to supply the processing gas between the pair of enclosure members . a pair of electrodes configured to generate plasma by discharge; a first supply path configured to supply processing gas between the pair of electrodes ; a second supply path configured to supply processing gas along an outer periphery of each of the pair of electrodes ; and a suction path configured to suck the processing gas supplied along an outer peripheral surface of each of the pair of electrodes via the second supply path characterized by: a pair of enclosure members configured to enclose at least an end portion of a discharge-side of each of the pair of electrodes , and wherein the second supply path is configured to supply processing gas to an inside of each of the pair of enclosure members , and the first supply path is configured to supply the processing gas between the pair of enclosure members . a pair of enclosure members configured to enclose at least an end portion of a discharge-side of each of the pair of electrodes , and wherein the second supply path is configured to supply processing gas to an inside of each of the pair of enclosure members , and the first supply path is configured to supply the processing gas between the pair of enclosure members .
Method for grinding a semiconductor wafer, wherein the semiconductor wafers are machined by means of a grinding tool containing grinding teeth with a height h while feeding a cooling medium into a contact region between the semiconductor wafer and the grinding tool, wherein at all times during the grinding operation a rinsing liquid is applied to a region on one side of the semiconductor wafer by means of a nozzle, characterized in that the region is at a spacing not less than 2 mm and not greater than 10 mm from the centre of the semiconductor wafer. wherein the semiconductor wafers are machined by means of a grinding tool containing grinding teeth with a height h while feeding a cooling medium into a contact region between the semiconductor wafer and the grinding tool, wherein at all times during the grinding operation a rinsing liquid is applied to a region on one side of the semiconductor wafer by means of a nozzle, characterized in that the region is at a spacing not less than 2 mm and not greater than 10 mm from the centre of the semiconductor wafer.
A method for aiding cyber intrusion investigations, the method comprising: extracting data from a specified range of a volatile memory of a target processing device; reconstructing data structures and artifacts from the extracted data; and generating and presenting a visualization of the reconstructed data structures and the reconstructed artifacts displayed with a graphical user interface , wherein the method is performed by at least one processing device , wherein the method further comprises: (a) generating, managing, importing and/or sharing at least one detection method for detecting anomalous conditions using the reconstructed artifacts displayed with the graphical user interface ; and (b) collecting metrics regarding effectiveness of the at least one detection method ; and sending the collected metrics to at least one other processing device for remote analytics. extracting data from a specified range of a volatile memory of a target processing device; reconstructing data structures and artifacts from the extracted data; and generating and presenting a visualization of the reconstructed data structures and the reconstructed artifacts displayed with a graphical user interface , wherein the method is performed by at least one processing device , wherein the method further comprises: (a) generating, managing, importing and/or sharing at least one detection method for detecting anomalous conditions using the reconstructed artifacts displayed with the graphical user interface ; and (b) collecting metrics regarding effectiveness of the at least one detection method ; and sending the collected metrics to at least one other processing device for remote analytics. (a) generating, managing, importing and/or sharing at least one detection method for detecting anomalous conditions using the reconstructed artifacts displayed with the graphical user interface ; and (b) collecting metrics regarding effectiveness of the at least one detection method ; and sending the collected metrics to at least one other processing device for remote analytics.
An ophthalmologic information processing apparatus comprising: an acquisition unit configured to acquire a tomographic image of a subject's eye (E) formed based on scan data acquired using an optical system for performing optical coherence tomography on the subject's eye (E); a tissue specifying unit configured to acquire first shape data representing shape of a tissue of the subject's eye (E) by performing segmentation processing on the tomographic image, the first shape data including a high sensitivity component and a low sensitivity component, the high sensitivity component having a large variation for a change in a position of the optical system with respect to the subject's eye (E), the low sensitivity component having a small variation for the change in the position of the optical system with respect to the subject's eye (E); characterised by a specifying unit configured to specify the low sensitivity component from the first shape data, and to output the specified low sensitivity component as second shape data representing shape of the tissue. an acquisition unit configured to acquire a tomographic image of a subject's eye (E) formed based on scan data acquired using an optical system for performing optical coherence tomography on the subject's eye (E); a tissue specifying unit configured to acquire first shape data representing shape of a tissue of the subject's eye (E) by performing segmentation processing on the tomographic image, the first shape data including a high sensitivity component and a low sensitivity component, the high sensitivity component having a large variation for a change in a position of the optical system with respect to the subject's eye (E), the low sensitivity component having a small variation for the change in the position of the optical system with respect to the subject's eye (E); characterised by a specifying unit configured to specify the low sensitivity component from the first shape data, and to output the specified low sensitivity component as second shape data representing shape of the tissue.
A radio frequency (RF) antenna element for a magnetic resonance examination system, the RF antenna element comprising a detuning system, wherein - the RF antenna element comprises a resonant electrically conductive loop and the detuning system comprises a photosensitive switching element configured to detune the resonant electrically conductive loop, wherein the detuning system comprises: - an injection optical source optically coupled to the photosensitive switching element; - a photodetector ; and - a bias optical source optically coupled to the photodetector, characterized in that the photodetector is circuited in parallel with the photosensitive switching element and in that the photodetector is configured to generate a negative bias voltage over the photosensitive switching element in response to incident radiation from the bias optical source. - the RF antenna element comprises a resonant electrically conductive loop and the detuning system comprises a photosensitive switching element configured to detune the resonant electrically conductive loop, wherein the detuning system comprises: - an injection optical source optically coupled to the photosensitive switching element; - a photodetector ; and - a bias optical source optically coupled to the photodetector, characterized in that the photodetector is circuited in parallel with the photosensitive switching element and in that the photodetector is configured to generate a negative bias voltage over the photosensitive switching element in response to incident radiation from the bias optical source.
Vehicle having a high pressure accumulator , into which a hydraulic motor feeds a volume flow for storing braking energy in overrun operation, a volume flow from the high-pressure accumulator driving the hydraulic motor in order to assist the vehicle drive and the hydraulic motor optionally delivering a hydraulic volume flow via a module into the high-pressure accumulator or into a storage container in order to produce a retarder braking torque in overrun operation, characterized in that a proportional valve, the throttling function of which can be controlled as a function of driving operation parameters, is integrated in the control module for the variable control of the volume flow in overrun operation.
Method of determining a degree of deception for an individual phishing attack against a person , wherein the degree of deception represents a measure of the probability of the phishing attack being successful, characterised in that a time taken which is necessary for preparing the phishing attack against the person is detected by measuring, and, using the time taken which is detected by measuring, the degree of deception is ascertained with a specified degree-of-deception calculation rule .
A terminal configured to control an operation according to a touch input, the terminal comprising: a mapping unit (110; 210) to scale map a touch recognition area on a first surface of the terminal to an active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) which is an area selected by the user on a touch recognition display screen on a second surface of the terminal, by comparing the size of the touch recognition area and the size of the active area; a determining unit (120; 220) to determine a location of the active area displayed on the display screen and the size of the active area; a control unit (130; 230) to control an operation of the terminal based on a touch input on the touch recognition area ; an activation determining unit to determine whether to recognize the touch input on the touch recognition area based on whether an application supports a touch on the touch recognition area; wherein the terminal further comprises a setting unit to set, when a plurality of applications is executed using multitasking in the terminal, for each of the plurality of applications, whether said application is to be controlled in the response to a touch input on the touch recognition area or to be controlled in response to a touch input on the active area; and wherein the control unit (130; 230) is adapted to move the active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) corresponding to the touch input on the touch recognition area. a mapping unit (110; 210) to scale map a touch recognition area on a first surface of the terminal to an active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) which is an area selected by the user on a touch recognition display screen on a second surface of the terminal, by comparing the size of the touch recognition area and the size of the active area; a determining unit (120; 220) to determine a location of the active area displayed on the display screen and the size of the active area; a control unit (130; 230) to control an operation of the terminal based on a touch input on the touch recognition area ; an activation determining unit to determine whether to recognize the touch input on the touch recognition area based on whether an application supports a touch on the touch recognition area; wherein the terminal further comprises a setting unit to set, when a plurality of applications is executed using multitasking in the terminal, for each of the plurality of applications, whether said application is to be controlled in the response to a touch input on the touch recognition area or to be controlled in response to a touch input on the active area; and wherein the control unit (130; 230) is adapted to move the active area (331; 1202; 1302, 1313, 1323; 1402; 1502, 1513, 1523) corresponding to the touch input on the touch recognition area.
A method implemented in a network device , comprising: receiving from a terminal device a report related to a measurement of a first reference signal, wherein the first reference signal has been sent from the network device to the terminal device according to a first periodicity, the method being characterized by sending , based on the report, to the terminal device an indication of a second periodicity for receiving a second reference signal, wherein the second reference signal is of the same type as the first reference signal. receiving from a terminal device a report related to a measurement of a first reference signal, wherein the first reference signal has been sent from the network device to the terminal device according to a first periodicity, the method being characterized by sending , based on the report, to the terminal device an indication of a second periodicity for receiving a second reference signal, wherein the second reference signal is of the same type as the first reference signal.
Device for attaching a construction part to a supporting structure , with a clamping device being lockable against the supporting structure , wherein the construction part is attachable to the clamping device , and wherein the clamping device has an attachment surface for the construction part, wherein the clamping device has a first clamping element and a second clamping element , wherein the first clamping element has a first clamping surface and first wedge-shaped surface being slanted relative to the first clamping surface , and wherein the second clamping element has a second clamping surface and a second wedge-shaped surface being slanted relative to the second clamping surface and being in direct contact with the first wedge-shaped surface in a completely mounted state of the clamping device , wherein the first clamping element and second clamping element are fixed and clamped together in a completely mounted state by means of a fastening element in such a way, that the first clamping surface and the second clamping surface are, through interaction of the first wedge-shaped surface and the second wedge-shaped surface , pressed against the supporting structure arranged in between the first clamping surface and the second clamping surface , wherein the first clamping element additionally has at least one first guiding element and the second clamping element has at least one second guiding element , wherein the first and second guiding elements interact as guidance fixture and can be brought into engagement in such a way, that the second clamping element is retained at the first clamping element in a pre-mounted position and is transferable from the pre-mounted position into a completely mounted position, characterised in that the second clamping element is rotatable from the pre-mounted position into a position that, with respect to the orientation of the second clamping element relative to the first clamping element , is equivalent to the completely mounted position of the second clamping element .
A side curtain airbag module having means to fasten the module to a body of a vehicle, the airbag module comprising: an airbag ; a plurality of fastening flaps associated to said airbag, said flaps being configured to be fastened to the body of said vehicle; at least one ramp to guide deployment of the airbag, said ramp having at least one fastener extending from the ramp configured to be fastened to said vehicle body; wherein said module further comprises means for securing the ramp to the airbag by relative movement of airbag and ramp, whereby in a mounting condition of the airbag module said ramp fasteners are at least in part housed by said airbag flaps . an airbag ; a plurality of fastening flaps associated to said airbag, said flaps being configured to be fastened to the body of said vehicle; at least one ramp to guide deployment of the airbag, said ramp having at least one fastener extending from the ramp configured to be fastened to said vehicle body; wherein said module further comprises means for securing the ramp to the airbag by relative movement of airbag and ramp, whereby in a mounting condition of the airbag module said ramp fasteners are at least in part housed by said airbag flaps .
An injection tool , comprising: - a longer smaller diameter pipe assembled movable inside a shorter larger diameter pipe ; - a connection piece assembled at the first end of the smaller diameter pipe ; - a nose piece assembled to the second end of the smaller diameter pipe ; characterized in that , - the nose piece comprises a ring plate , a rubber plate , a support plate and a connecting plate connected together to form the nose piece . - a longer smaller diameter pipe assembled movable inside a shorter larger diameter pipe ; - a connection piece assembled at the first end of the smaller diameter pipe ; - a nose piece assembled to the second end of the smaller diameter pipe ; - the nose piece comprises a ring plate , a rubber plate , a support plate and a connecting plate connected together to form the nose piece .
A method of forming a multi-layer coated substrate, comprising the steps of: a. spraying a first ceramic material onto the substrate to form a ceramic layer, wherein the ceramic material is formed of at least one of carbides, carbonitrides, borides, carbon, and oxides; b. spraying cBN particles onto the ceramic layer; c. infiltrating a second ceramic material into the cBN particles wherein the second ceramic material is chosen from the set consisting of carbides, carbonitrides, borides, carbon, and oxides, and wherein the infiltration step is performed by a chemical vapor infiltration (CVI) process to create a composite cBN particle layer; d. bonding the cBN composite layer by a method selected from the set consisting of microwave sintering, infrared (IR) heating or, laser radiation; and e. spraying a third ceramic material onto the cBN composite layer to form a second ceramic layer, wherein the ceramic material comprises at least one of carbides, carbonitrides, borides, carbon, and oxides. a. spraying a first ceramic material onto the substrate to form a ceramic layer, wherein the ceramic material is formed of at least one of carbides, carbonitrides, borides, carbon, and oxides; b. spraying cBN particles onto the ceramic layer; c. infiltrating a second ceramic material into the cBN particles wherein the second ceramic material is chosen from the set consisting of carbides, carbonitrides, borides, carbon, and oxides, and wherein the infiltration step is performed by a chemical vapor infiltration (CVI) process to create a composite cBN particle layer; d. bonding the cBN composite layer by a method selected from the set consisting of microwave sintering, infrared (IR) heating or, laser radiation; and e. spraying a third ceramic material onto the cBN composite layer to form a second ceramic layer, wherein the ceramic material comprises at least one of carbides, carbonitrides, borides, carbon, and oxides.
A method for presenting an image, comprising: (a) projecting light from a light source into an optical element, the light including at least first and second wavelength bands, and the optical element including at least first (140 2 ) and second waveguides (140 1 ), the first and second waveguides each having at least one optical grating ; characterized by (b) altering, in a polarization state generator prior to entry into the first waveguide, the polarization of the second wavelength band incident on the first waveguide from a state E polarization to a state M polarization so that the second wavelength band does not couple within the first waveguide, wherein light in the state E polarization couples into the waveguides and light in the state M polarization does not couple into the waveguides; (c) controlling the polarization of the first wavelength band incident on the first waveguide to be different than the polarization of the second wavelength band incident on the first waveguide so that the first wavelength band couples within the first waveguide to a greater extent than the other than first wavelength bands; and (d) altering, in a polarization state generator prior to entry into the second waveguide, the polarization of the second wavelength band incident on the second waveguide from the state M polarization to the state E polarization so that the second wavelength band couples within the second waveguide (a) projecting light from a light source into an optical element, the light including at least first and second wavelength bands, and the optical element including at least first (140 2 ) and second waveguides (140 1 ), the first and second waveguides each having at least one optical grating ; characterized by (b) altering, in a polarization state generator prior to entry into the first waveguide, the polarization of the second wavelength band incident on the first waveguide from a state E polarization to a state M polarization so that the second wavelength band does not couple within the first waveguide, wherein light in the state E polarization couples into the waveguides and light in the state M polarization does not couple into the waveguides; (c) controlling the polarization of the first wavelength band incident on the first waveguide to be different than the polarization of the second wavelength band incident on the first waveguide so that the first wavelength band couples within the first waveguide to a greater extent than the other than first wavelength bands; and (d) altering, in a polarization state generator prior to entry into the second waveguide, the polarization of the second wavelength band incident on the second waveguide from the state M polarization to the state E polarization so that the second wavelength band couples within the second waveguide
A method for producing a laminated moulded part with the following steps: pressure moulding a blank to form a moulded part in a moulding cavity between a first moulding tool unit and a second moulding tool unit ; introducing a laminating film into the moulding cavity after the pressure moulding of the blank; and bonding the moulded part with the laminating film in the moulding cavity ; characterised in that , the bonding of the moulded part with the laminating film comprises a pressure lamination of the moulded part with the laminating film in the moulding cavity between the first moulding tool unit and a third moulding tool unit , which differs from the second moulding tool unit ; wherein before the pressure lamination the laminating film is sucked onto the third moulding tool unit , and on the third moulding tool unit is introduced into the moulding cavity . pressure moulding a blank to form a moulded part in a moulding cavity between a first moulding tool unit and a second moulding tool unit ; introducing a laminating film into the moulding cavity after the pressure moulding of the blank; and bonding the moulded part with the laminating film in the moulding cavity ; characterised in that , the bonding of the moulded part with the laminating film comprises a pressure lamination of the moulded part with the laminating film in the moulding cavity between the first moulding tool unit and a third moulding tool unit , which differs from the second moulding tool unit ; wherein before the pressure lamination the laminating film is sucked onto the third moulding tool unit , and on the third moulding tool unit is introduced into the moulding cavity .