mhurhangee/ep-ind-claims huggingface dataset:
A heat exchange plate (3022, 4022) comprising: a front face that defines a first heat exchange surface, a back face on a side of the plate opposed to the front face, the back face defining a second heat exchange surface; and an interior fluid passageway (3055, 4055, 1912) disposed between the front face and the back face of the heat exchange plate, the surface of the interior fluid passageway defining a third heat exchange surface, wherein the front face comprises outwardly protruding regions corresponding to the location of the interior fluid passageway, the outwardly protruding regions protruding in a given location to an extent that is defined by a height of the interior fluid passageway in the given location, where height refers to a dimension in a direction normal to the front face, the outwardly protruding regions that correspond to the location of the interior fluid passageway and are defined by the height of the interior fluid passageway including a first zone corresponding to a first interior fluid passageway height, a second zone corresponding to a second interior fluid passageway height, where the first interior fluid passageway height is greater than the second interior fluid passageway height, and a third zone corresponding to a third interior fluid passageway height, where the second interior fluid passageway height is greater than the third interior fluid passageway height. a front face that defines a first heat exchange surface, a back face on a side of the plate opposed to the front face, the back face defining a second heat exchange surface; and an interior fluid passageway (3055, 4055, 1912) disposed between the front face and the back face of the heat exchange plate, the surface of the interior fluid passageway defining a third heat exchange surface, wherein the front face comprises outwardly protruding regions corresponding to the location of the interior fluid passageway, the outwardly protruding regions protruding in a given location to an extent that is defined by a height of the interior fluid passageway in the given location, where height refers to a dimension in a direction normal to the front face, the outwardly protruding regions that correspond to the location of the interior fluid passageway and are defined by the height of the interior fluid passageway including a first zone corresponding to a first interior fluid passageway height, a second zone corresponding to a second interior fluid passageway height, where the first interior fluid passageway height is greater than the second interior fluid passageway height, and a third zone corresponding to a third interior fluid passageway height, where the second interior fluid passageway height is greater than the third interior fluid passageway height.
A speaker module, comprising an active sound source, a passive sound source, and a protective frame for accommodating and fixing the active sound source and the passive sound source, wherein the active sound source comprises a vibration system and a magnetic circuit system, the vibration system comprises a vibrating diaphragm and a voice coil, and the magnetic circuit system is formed with a magnetic gap for accommodating the voice coil; a front acoustic cavity is formed between an upper side of the vibrating diaphragm and the protective frame, and a rear acoustic cavity is formed between a side of the vibrating diaphragm closer to the magnetic circuit system and the protective frame, wherein the active sound source has a structure emitting sound at a lateral side, and a sound hole for the active sound source is provided at a lateral side of the protective frame, and the sound hole for the active sound source is in communication with the front acoustic cavity; the passive sound source is provided in the rear acoustic cavity and comprises two passive radiators (51, 52) opposite to each other, and the two passive radiators (51, 52) are arranged in parallel, and a cavity is formed between the two passive radiators (51, 52); which is characterized in that, the protective frame comprises an upper housing, a middle housing and a lower housing, the active sound source is accommodated by the upper housing and the middle housing, and the two passive radiators (51, 52) are accommodated by the middle housing and the lower housing, the two passive radiators (51, 52) are arranged in parallel to the middle housing and the lower housing, a sound wave at the side of the vibrating diaphragm closer to the magnetic circuit system is divided into two parts, which are transmitted between an upper passive radiator of the two passive radiators and the middle housing and between a lower passive radiator of the two passive radiators and the lower housing, respectively, and a sound wave in the cavity is pressed and radiated outside the speaker module through sound holes for the passive sound source.
Hearing device, - with a first microphone for detecting an acoustic signal from the environment of the hearing device, - with a housing in which the first microphone is arranged, wherein the housing has a first microphone opening through which the first microphone for detecting the acoustic signal communicates with the environment of the hearing device, - with a first damping element, by means of which the first microphone is supported against the housing, and - with a first barrier element for sealing the first microphone opening against moisture in a sound-transmitting manner, wherein the first damping element has a pocket in which the first barrier element is received reversibly, wherein the first barrier element is sealed off from the housing by means of the first damping element all around the first microphone opening, characterized in that the first damping element has an aperture corresponding to the first microphone opening, and wherein the pocket is designed as an undercut of the aperture, and wherein the undercut is opened in a direction transverse to a longitudinal axis of the aperture, in such a way that an insertion well for the first barrier element is formed, or wherein the aperture has, at one of its ends, an edge (34, 38) delimiting the undercut, and wherein the aperture is enlarged, at this end, in relation to the other end of the aperture. - with a first microphone for detecting an acoustic signal from the environment of the hearing device, - with a housing in which the first microphone is arranged, wherein the housing has a first microphone opening through which the first microphone for detecting the acoustic signal communicates with the environment of the hearing device, - with a first damping element, by means of which the first microphone is supported against the housing, and - with a first barrier element for sealing the first microphone opening against moisture in a sound-transmitting manner,
An ophthalmologic apparatus comprising: a refractometry optical system configured to project light onto a subject's eye and to detect returning light from the subject's eye; an OCT optical system configured to split light from an OCT light source into measurement light and reference light, to project the measurement light onto the subject's eye, and to detect interference light between returning light of the measurement light from the subject's eye and the reference light, and the OCT optical system being provided on an optical path wavelength-separated from an optical path of the refractometry optical system by an optical path combining and separating member; a fixation projection system configured to simultaneously project a first fixation target and a second fixation target onto the subject's eye, a visual angle of the second fixation target being narrower than a visual angle of the first fixation target, and the first fixation target being a fixation target for refractometry, and the second fixation target being a fixation target for OCT measurement; and a controller configured to control the refractometry optical system and the OCT optical system characterized in that the controller is configured to simultaneously perform a refractometry and an OCT measurement, and the refractometry and the OCT measurement being simultaneously performed while simultaneously projecting the first fixation target and the second fixation target onto the subject's eye. a refractometry optical system configured to project light onto a subject's eye and to detect returning light from the subject's eye; an OCT optical system configured to split light from an OCT light source into measurement light and reference light, to project the measurement light onto the subject's eye, and to detect interference light between returning light of the measurement light from the subject's eye and the reference light, and the OCT optical system being provided on an optical path wavelength-separated from an optical path of the refractometry optical system by an optical path combining and separating member; a fixation projection system configured to simultaneously project a first fixation target and a second fixation target onto the subject's eye, a visual angle of the second fixation target being narrower than a visual angle of the first fixation target, and the first fixation target being a fixation target for refractometry, and the second fixation target being a fixation target for OCT measurement; and a controller configured to control the refractometry optical system and the OCT optical system characterized in that the controller is configured to simultaneously perform a refractometry and an OCT measurement, and the refractometry and the OCT measurement being simultaneously performed while simultaneously projecting the first fixation target and the second fixation target onto the subject's eye.
Method for supplying a combustion chamber with nitrogen wherein: nitrogen gas is extracted from an air separation device at a first pressure, the nitrogen is compressed in a nitrogen compressor (C1, C2, C3) and sent to a combustion chamber at a second pressure, which is the output pressure of the final stage of the nitrogen compressor characterised in that the nitrogen compressor comprises at least two stages and between two stages of the nitrogen compressor, nitrogen is humidified by direct contact by entering a contactor (17, 117) supplied at the top with water and the humidified nitrogen is compressed in at least one stage of the nitrogen compressor to form nitrogen at the second pressure sent to the combustion chamber.
Communications system for mobile communications, comprising a central processing unit, a process and data processing unit, at least one control processing unit and at least one payload processing unit, - wherein the process and data processing unit is connected to the central processing unit, to the at least one control processing unit and to the at least one payload processing unit, and controls said units, - wherein the process and data processing unit is a separation kernel operating system, which stores different function blocks as autonomous process spaces in different partitions (6, 7), - wherein the arrangement of the partitions (6, 7) cannot be modified during boot-up and at runtime of the communications system, - wherein the at least one control processing unit in a first partition and the at least one payload processing unit in a second partition are located separately from one another and are connected to one another via a connection, over which a limited amount of data is transferred, and - wherein a structure, in which the data is transmitted between the at least one control processing unit and the at least one payload processing unit, is known, and therefore the permitted amount of data to be transmitted is limited to the amount of data normally to be transmitted during error-free operation. - wherein the process and data processing unit is connected to the central processing unit, to the at least one control processing unit and to the at least one payload processing unit, and controls said units, - wherein the process and data processing unit is a separation kernel operating system, which stores different function blocks as autonomous process spaces in different partitions (6, 7), - wherein the arrangement of the partitions (6, 7) cannot be modified during boot-up and at runtime of the communications system, - wherein the at least one control processing unit in a first partition and the at least one payload processing unit in a second partition are located separately from one another and are connected to one another via a connection, over which a limited amount of data is transferred, and - wherein a structure, in which the data is transmitted between the at least one control processing unit and the at least one payload processing unit, is known, and therefore the permitted amount of data to be transmitted is limited to the amount of data normally to be transmitted during error-free operation.
A method to configure a portable computing device to reliably receive monitoring information, comprising: determining, by a monitoring application running on one or more processors of the portable computing device, whether the portable computing device is within a particular range to communicate with a monitoring device; if the portable computing device is within the particular range, configuring the portable computing device to communicate with the monitoring device via a primary monitoring communication mode; if the portable computing device is outside the particular range, configuring the portable computing device to communicate with the monitoring device via a secondary monitoring communication mode, wherein the primary monitoring communication mode is configured to receive monitoring information of a higher quality compared to information received via the secondary monitoring communication mode; and receiving, at the portable computing device and from the monitoring device via the primary monitoring communication mode or the secondary monitoring communication mode, monitoring information associated with a monitored subject or associated with an area in which the monitored subject is located, the method further comprising using device positioning techniques to determine whether the portable computing device is within the particular range to communicate with the monitoring device. determining, by a monitoring application running on one or more processors of the portable computing device, whether the portable computing device is within a particular range to communicate with a monitoring device; if the portable computing device is within the particular range, configuring the portable computing device to communicate with the monitoring device via a primary monitoring communication mode; if the portable computing device is outside the particular range, configuring the portable computing device to communicate with the monitoring device via a secondary monitoring communication mode, wherein the primary monitoring communication mode is configured to receive monitoring information of a higher quality compared to information received via the secondary monitoring communication mode; and receiving, at the portable computing device and from the monitoring device via the primary monitoring communication mode or the secondary monitoring communication mode, monitoring information associated with a monitored subject or associated with an area in which the monitored subject is located, the method further comprising using device positioning techniques to determine whether the portable computing device is within the particular range to communicate with the monitoring device.
A portable terminal having a cover device, comprising: a main body; an input/output unit provided on a front surface of the main body and the input/output unit including a first touch panel of a first touch sensitive type and a second touch panel of a second touch sensitive type; a first sensor provided on the main body and configured to detect folding/unfolding of the cover from the main body; a second sensor configured to detect whether an input member in the main body is removed from the main body; and a controller configured to control the input/output unit and an output unit provided on the cover by using the first sensor and the second sensor, wherein, in a first state where the cover is folded and the input member is in the main body, the controller controls the input/output unit to be turned off, the output unit to be turned on, the first touch panel to be turned off, and the second touch panel to be turned off, wherein, in a second state where the cover is folded and the input member is removed from the main body, the controller controls the input/output unit to be turned off, the output unit to be turned on, the first touch panel to be turned off, and the second touch panel to be turned on. a main body; an input/output unit provided on a front surface of the main body and the input/output unit including a first touch panel of a first touch sensitive type and a second touch panel of a second touch sensitive type; a first sensor provided on the main body and configured to detect folding/unfolding of the cover from the main body; a second sensor configured to detect whether an input member in the main body is removed from the main body; and a controller configured to control the input/output unit and an output unit provided on the cover by using the first sensor and the second sensor, wherein, in a first state where the cover is folded and the input member is in the main body, the controller controls the input/output unit to be turned off, the output unit to be turned on, the first touch panel to be turned off, and the second touch panel to be turned off, wherein, in a second state where the cover is folded and the input member is removed from the main body, the controller controls the input/output unit to be turned off, the output unit to be turned on, the first touch panel to be turned off, and the second touch panel to be turned on.
Method for limiting the ovalization and/or the superimposed tilting of a rolling bearing supporting a drive unit, having at least two bearing rings (IR, AR) arranged such that they can rotate relative to each other, which enclose at least one row of rolling elements in a bearing interior and which are spaced apart from each other by an annular gap, wherein the drive unit is arranged in such a way that radial forces acting on the bearing rings (IR, AR) depend on a drive power supplied to the drive unit as motor power, comprising the following steps: - determining a radial deformation of the annular gap between the bearing rings (IR, AR) occurring during the operation of the drive unit, by means of at least two distance sensors, - comparing the determined radial deformation with a predefinable limiting value in an evaluation unit and - reducing the motor power supplied to the drive unit by means of a control unit of the drive unit which is connected to the distance sensors, if the radial deformation exceeds the predefinable limiting value. - determining a radial deformation of the annular gap between the bearing rings (IR, AR) occurring during the operation of the drive unit, by means of at least two distance sensors, - comparing the determined radial deformation with a predefinable limiting value in an evaluation unit and - reducing the motor power supplied to the drive unit by means of a control unit of the drive unit which is connected to the distance sensors, if the radial deformation exceeds the predefinable limiting value.
Turret comprising: a firearm a support assembly which supports said firearm and which is configured for moving said firearm about an azimuthal rotation or swivelling axis and about a zenithal rotation or elevation axis; and a protection apparatus mounted on said support assembly and configured to assume a covering condition and an opening condition; characterized in that said firearm is configured for shooting precision-guided munitions; in that said turret further comprises a munition guiding device mounted on said support assembly and configured for directing a precision-guided munition, which is shot by said firearm towards a target; in that, in said covering condition, said protection apparatus hides said munition guiding device on the inside of said support assembly; and in that, in said opening condition, said protection apparatus exhibits said munition guiding device on the outside of said support assembly. a firearm a support assembly which supports said firearm and which is configured for moving said firearm about an azimuthal rotation or swivelling axis and about a zenithal rotation or elevation axis; and a protection apparatus mounted on said support assembly and configured to assume a covering condition and an opening condition; characterized in that said firearm is configured for shooting precision-guided munitions; in that said turret further comprises a munition guiding device mounted on said support assembly and configured for directing a precision-guided munition, which is shot by said firearm towards a target; in that, in said covering condition, said protection apparatus hides said munition guiding device on the inside of said support assembly; and in that, in said opening condition, said protection apparatus exhibits said munition guiding device on the outside of said support assembly.
Solid-state laser comprising a cavity which comprises an amplification medium, and which has an oscillation direction of a laser beam, the cavity further comprising: - a first birefringent plate with parallel faces which has a first optical axis which forms a first angle (α)α with the oscillation direction, the first angle being neither parallel with nor perpendicular to the oscillation direction to within 10°, in order to generate, from a single laser beam, a mutually parallel first laser beam (Fo) and second laser beam (Fe) which have a first spatial offset, corresponding respectively to a mutually orthogonal first individual polarisation state (o) and second individual polarisation state (e), and at which the laser is capable of oscillating, the first birefringent plate and the cavity being configured so that the first birefringent plate separates a first zone of the cavity, in which the laser beam is a single beam, from a second zone comprising the first laser beam (Fo) and second laser beam (Fe), characterised in that the cavity further comprises - an absorbent whose absorption increases with the optical power of the beam passing through it, - the active medium and the absorbent being arranged in the second zone so that they are both passed through by the first beam (Fo) and second beam (Fe) which are spatially offset. - a first birefringent plate with parallel faces which has a first optical axis which forms a first angle (α)α with the oscillation direction, the first angle being neither parallel with nor perpendicular to the oscillation direction to within 10°, in order to generate, from a single laser beam, a mutually parallel first laser beam (Fo) and second laser beam (Fe) which have a first spatial offset, corresponding respectively to a mutually orthogonal first individual polarisation state (o) and second individual polarisation state (e), and at which the laser is capable of oscillating, the first birefringent plate and the cavity being configured so that the first birefringent plate separates a first zone of the cavity, in which the laser beam is a single beam, from a second zone comprising the first laser beam (Fo) and second laser beam (Fe), characterised in that the cavity further comprises - an absorbent whose absorption increases with the optical power of the beam passing through it, - the active medium and the absorbent being arranged in the second zone so that they are both passed through by the first beam (Fo) and second beam (Fe) which are spatially offset.