mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal comprising: a wireless communication unit configured to communicate with at least one wirelessly connected device; a touchscreen configured to display information and to receive user inputs; and a controller configured to in response to a first touch input, which is received via the touchscreen while a touch sensing function of the touchscreen is working and while a display function of the touchscreen is in a turned-off status, and a second touch input that is received via the touchscreen while the first touch input is maintained on the touchscreen, turn on the display function of the touchscreen and cause the touchscreen to display information received from the at least one wirelessly connected device, and in response to another second touch input that is received via the touchscreen when the first touch input is not touching the touchscreen any more, while the touch sensing function of the touchscreen is working and while the display function of the touchscreen is in the turned-off status, turn on the display function of the touchscreen without displaying information received from the at least one wirelessly connected device. a wireless communication unit configured to communicate with at least one wirelessly connected device; a touchscreen configured to display information and to receive user inputs; and a controller configured to in response to a first touch input, which is received via the touchscreen while a touch sensing function of the touchscreen is working and while a display function of the touchscreen is in a turned-off status, and a second touch input that is received via the touchscreen while the first touch input is maintained on the touchscreen, turn on the display function of the touchscreen and cause the touchscreen to display information received from the at least one wirelessly connected device, and in response to another second touch input that is received via the touchscreen when the first touch input is not touching the touchscreen any more, while the touch sensing function of the touchscreen is working and while the display function of the touchscreen is in the turned-off status, turn on the display function of the touchscreen without displaying information received from the at least one wirelessly connected device.
Rotary ultrasonic motor with at least one ultrasonic actuator, an element to be driven and a casing comprising an inner casing member and an outer casing member, where said ultrasonic actuator comprises piezoelectric or electrostrictive or magnetostrictive material which is arranged between at least one excitation electrode and at least one general electrode, where said inner casing member and said outer casing member are arranged concentrically and said ultrasonic actuator is arranged in said casing between said inner casing member and said outer casing member in a space enclosed by the outer casing member and is directly or indirectly in contact with said element to be driven, so that the periodic deformations generated in said ultrasonic actuator by electrical excitation are transferable to said element to be driven and cause a drive motion of the latter, characterized in that said ultrasonic actuator is mounted by way of a retaining device arranged on said casing with at least one retaining section which engages in a recess that is associated with said respective retaining section and disposed in said ultrasonic actuator.
A booster rocket comprising: an annular casing (40, 240) defining an annular space therewithin, and having a central opening; a solid rocket fuel in the annular space; and one or more nozzle pieces mechanically coupled to the annular casing (40, 240), defining one or more nozzles at an aft end of the annular casing (40, 240), wherein the casing includes multiple casing parts (60, 62), and wherein the multiple casing parts (60, 62) include an inner casing part and an outer casing part; and wherein the inner casing part and the outer casing part are threadedly coupled together. an annular casing (40, 240) defining an annular space therewithin, and having a central opening; a solid rocket fuel in the annular space; and one or more nozzle pieces mechanically coupled to the annular casing (40, 240), defining one or more nozzles at an aft end of the annular casing (40, 240), wherein the casing includes multiple casing parts (60, 62), and wherein the multiple casing parts (60, 62) include an inner casing part and an outer casing part; and wherein the inner casing part and the outer casing part are threadedly coupled together.
A nucleic acid molecule comprising tricyclo-nucleosides joined by internucleoside phosphorothioate linkages (3'-OPS-0-5' linkages), wherein: - the proportion of tricyclo-nucleosides represent at least 50%, preferentially at least 60%, 70%, 80%, 90% or 95% of total nucleosides in the nucleic acid molecule, and/or - the proportion of internucleoside phosphorothioate linkages represent at least 50%, preferentially at least 60%, 70%, 80%, 90% or 95% of total internucleoside linkages in the nucleic acid molecule. - the proportion of tricyclo-nucleosides represent at least 50%, preferentially at least 60%, 70%, 80%, 90% or 95% of total nucleosides in the nucleic acid molecule, and/or - the proportion of internucleoside phosphorothioate linkages represent at least 50%, preferentially at least 60%, 70%, 80%, 90% or 95% of total internucleoside linkages in the nucleic acid molecule.
A multi-electrode ablation system comprising: a power supply configured to be coupled to a plurality of electrodes; and a controller coupled to the power supply, the controller configured to: determine a thermal gain for each electrode of the plurality of electrodes, the thermal gain defined as the ratio of the change in temperature measured at time t at the electrode and the power level supplied to the electrode at time t, characterized in that the controller is further configured to iteratively set a power limit during ablation for each electrode of the plurality of electrodes based at least in part on said electrode's current determined thermal gain, wherein the power limit establishes a maximum power that may be dissipated through said electrode. a power supply configured to be coupled to a plurality of electrodes; and a controller coupled to the power supply, the controller configured to: determine a thermal gain for each electrode of the plurality of electrodes, the thermal gain defined as the ratio of the change in temperature measured at time t at the electrode and the power level supplied to the electrode at time t, characterized in that the controller is further configured to iteratively set a power limit during ablation for each electrode of the plurality of electrodes based at least in part on said electrode's current determined thermal gain, wherein the power limit establishes a maximum power that may be dissipated through said electrode. determine a thermal gain for each electrode of the plurality of electrodes, the thermal gain defined as the ratio of the change in temperature measured at time t at the electrode and the power level supplied to the electrode at time t, characterized in that the controller is further configured to iteratively set a power limit during ablation for each electrode of the plurality of electrodes based at least in part on said electrode's current determined thermal gain, wherein the power limit establishes a maximum power that may be dissipated through said electrode.
An exhaust-gas-purifying catalyst comprising a catalyst support substrate and a plurality of catalyst layers formed on a surface of said catalyst support substrate characterized in that an exterior-surface layer for forming a surface of said plural catalyst layers includes: a loading layer formed by fireproof inorganic oxide; at least one catalytic metal selected from the group consisting of platinum, palladium and rhodium, and supported on said loading layer; stabilized zirconia loaded on said loading layer; and cerium-zirconium composite oxide loaded on said loading layer, and said stabilized zirconia includes zirconia and oxide formed by at least one additive member selected from the group consisting of yttrium, neodymium, praseodymium and lanthanum. a loading layer formed by fireproof inorganic oxide; at least one catalytic metal selected from the group consisting of platinum, palladium and rhodium, and supported on said loading layer; stabilized zirconia loaded on said loading layer; and cerium-zirconium composite oxide loaded on said loading layer, and said stabilized zirconia includes zirconia and oxide formed by at least one additive member selected from the group consisting of yttrium, neodymium, praseodymium and lanthanum.
A capnometer comprising: an integrated device comprising a substrate, an infrared light absorbing layer disposed on the substrate, and a bandpass filter layer disposed on the substrate; a light source arranged to emit light that passes through the bandpass filter layer of the integrated device to reach the infrared light absorbing layer of the integrated device; and electronics connected with the infrared light absorbing layer of the integrated device to measure a photoconductivity signal of the infrared light absorbing layer, the electronics including signal processing circuitry to convert the photoconductivity signal to a carbon dioxide partial pressure or concentration value; wherein the bandpass filter layer and the infrared light absorbing layer of the integrated device are disposed on a same side of the substrate with the bandpass filter layer disposed between the substrate and the infrared light absorbing layer, and the substrate of the integrated device is transparent for the light emitted by the light source at least over the pass band of the bandpass filter layer of the integrated device; wherein the capnometer further comprises a carbon dioxide CO2 measurement cell including a flow path through which respired gas flows and wherein the light source is arranged to emit the light to pass through the flow path of the CO2 measurement cell before reaching the bandpass filter layer of the integrated device. an integrated device comprising a substrate, an infrared light absorbing layer disposed on the substrate, and a bandpass filter layer disposed on the substrate; a light source arranged to emit light that passes through the bandpass filter layer of the integrated device to reach the infrared light absorbing layer of the integrated device; and electronics connected with the infrared light absorbing layer of the integrated device to measure a photoconductivity signal of the infrared light absorbing layer, the electronics including signal processing circuitry to convert the photoconductivity signal to a carbon dioxide partial pressure or concentration value; wherein the bandpass filter layer and the infrared light absorbing layer of the integrated device are disposed on a same side of the substrate with the bandpass filter layer disposed between the substrate and the infrared light absorbing layer, and the substrate of the integrated device is transparent for the light emitted by the light source at least over the pass band of the bandpass filter layer of the integrated device; wherein the capnometer further comprises a carbon dioxide CO2 measurement cell including a flow path through which respired gas flows and wherein the light source is arranged to emit the light to pass through the flow path of the CO2 measurement cell before reaching the bandpass filter layer of the integrated device.
A method of fabricating a rectifier comprising: - providing a semiconductor body (100B, 100A) of a first conductivity type; - etching a plurality of trenches in a surface of the semiconductor body so that a mesa remains between adjacent trenches, each of the trenches having a sidewall and a bottom; - forming a plurality of floating gates in each of the trenches, wherein that forming includes forming a plurality of alternating layers of a dielectric material (127 1, 127 2, 127 3, 127 4) and a conductive material (140 1, 140 2, 140 3, 140 4, 140 5) in each of the trenches, wherein the first conductive layer (140 1) shows a thickness of about 0.1 to 5 microns, and wherein the first dielectric layer. (127 1) shows a thickness of between 0.2 and 2 microns; and - forming a metal layer on a surface of the mesa so that a Schottky contact is formed therewith, wherein forming each of the plurality of alternating layers (127 1, 127 2, 127 3, 127 4, 140 1, 140 2, 140 3, 140 4, 140 5) includes depositing and etching back the dielectric material and the conductive material. - providing a semiconductor body (100B, 100A) of a first conductivity type; - etching a plurality of trenches in a surface of the semiconductor body so that a mesa remains between adjacent trenches, each of the trenches having a sidewall and a bottom; - forming a plurality of floating gates in each of the trenches, wherein that forming includes forming a plurality of alternating layers of a dielectric material (127 1, 127 2, 127 3, 127 4) and a conductive material (140 1, 140 2, 140 3, 140 4, 140 5) in each of the trenches, wherein the first conductive layer (140 1) shows a thickness of about 0.1 to 5 microns, and wherein the first dielectric layer. (127 1) shows a thickness of between 0.2 and 2 microns; and - forming a metal layer on a surface of the mesa so that a Schottky contact is formed therewith, wherein forming each of the plurality of alternating layers (127 1, 127 2, 127 3, 127 4, 140 1, 140 2, 140 3, 140 4, 140 5) includes depositing and etching back the dielectric material and the conductive material.
Crystalline darunavir hydrate comprising not more than 500 ppm of non-aqueous solvent, characterised in that the crystalline darunavir hydrate has a water content in the range of 7.0 to 8.5%, and is non-hygroscopic.
A method of removing surface clutter in synthetic aperture radar, SAR, imaging of subsurface targets in a SAR system, the method comprising: - selecting (330, 335) a first frequency and an incidence angle ( χ 0) for a radar signal such that the ratio of surface backscattering to subsurface target backscattering is larger for vertical polarization than for horizontal polarization; - obtaining (210, 215, 340, 345), by transmitting and receiving components of the SAR system and with the aid of an aircraft in flight, a vertically polarized SAR image F V (x, y) and a horizontally polarized SAR image F H (x, y) based on a same SAR path exploiting the selected first frequency and incidence angle for a vertically polarized and a horizontally polarized radar signal; - weighting and differencing (320, 360) the vertically and horizontally polarized SAR images, wherein an adaptive minimum energy method is used for weighting and differencing the vertically and horizontally polarized SAR images, so that the surface backscattering completely cancels between the two SAR images and only the combination of the target backscattering components remains, by - selecting (305, 350), within the SAR images, an area T that appears to be homogenous; - finding (310, 355) a γmin such that an energy function E is minimized as: E = ∫∫ T F H x y − γ min F V x y 2 dxdy = min - forming (320, 360) a ground clutter suppressed SAR image ΔF(x, y) by forming the expression ΔF x y = F H x y − γ min F V x y - selecting (330, 335) a first frequency and an incidence angle ( χ 0) for a radar signal such that the ratio of surface backscattering to subsurface target backscattering is larger for vertical polarization than for horizontal polarization; - obtaining (210, 215, 340, 345), by transmitting and receiving components of the SAR system and with the aid of an aircraft in flight, a vertically polarized SAR image F V (x, y) and a horizontally polarized SAR image F H (x, y) based on a same SAR path exploiting the selected first frequency and incidence angle for a vertically polarized and a horizontally polarized radar signal; - weighting and differencing (320, 360) the vertically and horizontally polarized SAR images, wherein an adaptive minimum energy method is used for weighting and differencing the vertically and horizontally polarized SAR images, so that the surface backscattering completely cancels between the two SAR images and only the combination of the target backscattering components remains, by - selecting (305, 350), within the SAR images, an area T that appears to be homogenous; - finding (310, 355) a γmin such that an energy function E is minimized as: E = ∫∫ T F H x y − γ min F V x y 2 dxdy = min - forming (320, 360) a ground clutter suppressed SAR image ΔF(x, y) by forming the expression ΔF x y = F H x y − γ min F V x y
An embedder (300; 700) for embedding a watermark (341; 742) to be embedded into an input information representation (310; 710) which represents an audio signal, or which represents a video signal, or which represents a computer program, or which represents an image, or which represents a text, comprising: an information adder (330; 740) implemented to provide the input information representation (310; 710) with the watermark (341; 742) to be embedded and with additional information (343; 762) to be added in order to obtain an information representation (320; 720) provided with the watermark to be embedded and with the additional information to be added, wherein the additional information to be added comprises descriptive information describing the embedding of at least one watermark into the information representation (320; 720) provided with the watermark to be embedded and with the additional information; wherein the embedder is implemented to provide the input information representation (310; 710) with the additional information (343; 762) to be added such that the additional information to be added carries information about how many watermarks are contained within the information representation (320; 720) provided with the watermark to be embedded and with the additional information to be added. an information adder (330; 740) implemented to provide the input information representation (310; 710) with the watermark (341; 742) to be embedded and with additional information (343; 762) to be added in order to obtain an information representation (320; 720) provided with the watermark to be embedded and with the additional information to be added, wherein the additional information to be added comprises descriptive information describing the embedding of at least one watermark into the information representation (320; 720) provided with the watermark to be embedded and with the additional information; wherein the embedder is implemented to provide the input information representation (310; 710) with the additional information (343; 762) to be added such that the additional information to be added carries information about how many watermarks are contained within the information representation (320; 720) provided with the watermark to be embedded and with the additional information to be added.
Road finishing machine with a thermographic device for recording a georeferenced thermographic data record of at least one region of a pavement layer, the thermographic device comprising a housing in which a detection unit for detecting a thermographic data record is disposed, wherein said detection unit for detecting the thermographic data record comprises an infrared camera, characterized in that the thermographic device is releasably fixed to the road finishing machine, and that in the housing also a detection unit for detecting a space-related data record for the thermographic data record is disposed.
A battery cell, comprising: a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case via the sealing portion; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead, wherein the lead film has a dented portion that is recessed in an inner direction of the battery case, the dented portion is opened toward the outside of the battery case, the sealing portion located on a gas inlet portion of the dented portion has a recessed sealing portion that is recessed outward from an inner side of the battery case, and the recessed sealing portion does not overlap with at least a part of the gas inlet portion on a plane. a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case via the sealing portion; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead, wherein the lead film has a dented portion that is recessed in an inner direction of the battery case, the dented portion is opened toward the outside of the battery case, the sealing portion located on a gas inlet portion of the dented portion has a recessed sealing portion that is recessed outward from an inner side of the battery case, and the recessed sealing portion does not overlap with at least a part of the gas inlet portion on a plane.
A soil cultivation device comprising at least one carrier frame on which a plurality of share elements (3, 4) are arranged spaced apart from each other in at least two rows (R1, R2) extending parallel to each other and transverse to the longitudinal axis of the soil cultivation device, wherein the soil cultivation device is designed for an operating direction extending parallel to the longitudinal axis, wherein the share elements are designed as exchangeable share modules (3, 4), namely as cultivator share modules and as ring cutting modules, wherein a share module (3, 4) is detachably fixed via a respective connecting device on the carrier frame along at least one first or one second row (R1, R2), wherein a plurality of cultivator share modules are arranged along the first row and a plurality of ring cutting modules are arranged along the second row and comprise a hub device (4.1) with spokes (4.2) and a ring cutter (4.3) connected to the hub device (4.1) via the spokes (4.2), wherein the first row is arranged in front of the second row in the operating direction and a cultivator share module and a ring cutting module are respectively connected to the connecting device via a spring loaded connecting element.
Method for setting a sanitary fitting, having at least the following steps: a) detection of an optoelectronically readable script with a sensor attached to the sanitary fitting; b) evaluation of an item of information contained in the optoelectronically readable script; c) setting of the sanitary fitting using the information; characterised in that the optoelectronically readable script has been sent subsequently and step c) comprises a software update. a) detection of an optoelectronically readable script with a sensor attached to the sanitary fitting; b) evaluation of an item of information contained in the optoelectronically readable script; c) setting of the sanitary fitting using the information;
Label comprising a film, paper and a pressure-sensitive adhesive, wherein the film comprises at least one first layer comprising at least 50 wt.% statistical heterophasic polypropylene (block) copolymer.