mhurhangee/ep-ind-claims huggingface dataset:
A diaphragm damper structured such that a high-pressure gas is sealed in a high-pressure chamber formed by two discoid metal diaphragms (1, 1) which are bonded to each other in their outer peripheral portions, wherein a rubber-like elastic member is arranged within said high-pressure chamber; characterized in that said rubber-like elastic member is constructed by discoid sheet portions (25, 26) which are provided so as to come into contact with each of said two discoid metal diaphragms (1, 1), and a plurality of rubber projections (251, 261) which are arranged circumferentially between said sheet portions (25, 26); and said rubber projections (251, 261) are integrally formed with said sheet portions (25, 26) and alternately extend from one of said sheet portions (25, 26) toward the surface of the other of said sheet portions (25, 26). wherein a rubber-like elastic member is arranged within said high-pressure chamber; said rubber-like elastic member is constructed by discoid sheet portions (25, 26) which are provided so as to come into contact with each of said two discoid metal diaphragms (1, 1), and a plurality of rubber projections (251, 261) which are arranged circumferentially between said sheet portions (25, 26); and said rubber projections (251, 261) are integrally formed with said sheet portions (25, 26) and alternately extend from one of said sheet portions (25, 26) toward the surface of the other of said sheet portions (25, 26).
A portal saver device used to maintain an open portal leading from outside to the inside of a patient's body, comprising: a tubular body having a rigid proximal end with threads; a proximal adjustment body having an inner bore with threads; wherein the threads on the rigid proximal end of the tubular body are configured to mate with the threads on the inner bore of the proximal adjustment body; characterized in that the tubular body has a flattened section between two tubular sections with a rounded cross section; the flattened section is adapted to form a seal between itself and an instrument extending through the tubular body; in a first configuration, the flattened section is a first distance from proximal adjustment body; and in a second configuration, the flattened section is a second distance from the proximal adjustment body. a tubular body having a rigid proximal end with threads; a proximal adjustment body having an inner bore with threads; wherein the threads on the rigid proximal end of the tubular body are configured to mate with the threads on the inner bore of the proximal adjustment body; characterized in that the tubular body has a flattened section between two tubular sections with a rounded cross section; the flattened section is adapted to form a seal between itself and an instrument extending through the tubular body; in a first configuration, the flattened section is a first distance from proximal adjustment body; and in a second configuration, the flattened section is a second distance from the proximal adjustment body.
A speaker module comprising: a speaker box; a diaphragm disposed on the speaker box and adapted to receive a signal to vibrate; and a plurality of porous grains disposed in the speaker box and adapted to absorb energy of air in the speaker box; and two air-permeable films (140, 240), wherein the speaker box has at least one blocking wall therein, the blocking wall dividing a containing space of the speaker box into a first space (S1, S1') and a second space, the porous grains filling the first space (S1, S1'), and the diaphragm corresponding to the second space, and wherein the air-permeable films (140, 240) cover the first space (S1, S1'), characterized in that the first space (S1, S1') is located between the two air-permeable films (140, 240). a speaker box; a diaphragm disposed on the speaker box and adapted to receive a signal to vibrate; and a plurality of porous grains disposed in the speaker box and adapted to absorb energy of air in the speaker box; and two air-permeable films (140, 240), wherein the speaker box has at least one blocking wall therein, the blocking wall dividing a containing space of the speaker box into a first space (S1, S1') and a second space, the porous grains filling the first space (S1, S1'), and the diaphragm corresponding to the second space, and wherein the air-permeable films (140, 240) cover the first space (S1, S1'), characterized in that the first space (S1, S1') is located between the two air-permeable films (140, 240).
An automatic audio transcription method, comprising: sending an audio stream and an identifier of the audio stream from a microphone device to an audio support server and to at least one hearing aid system comprising a hearing aid and a portable device connected to the hearing aid, wherein the audio stream and the identifier are sent to the hearing aid, wherein the identifier is sent from the hearing aid to the portable device; playing the audio stream with the hearing aid; registering the at least one hearing aid system at the audio support server by sending the identifier from the hearing aid system to the audio support server; transcribing the audio stream into a text stream with at least one of the audio support server and an audio transcription server; sending the text stream from the audio support server to the portable device associated with the identifier of the audio stream; displaying the text stream with the portable device. sending an audio stream and an identifier of the audio stream from a microphone device to an audio support server and to at least one hearing aid system comprising a hearing aid and a portable device connected to the hearing aid, wherein the audio stream and the identifier are sent to the hearing aid, wherein the identifier is sent from the hearing aid to the portable device; playing the audio stream with the hearing aid; registering the at least one hearing aid system at the audio support server by sending the identifier from the hearing aid system to the audio support server; transcribing the audio stream into a text stream with at least one of the audio support server and an audio transcription server; sending the text stream from the audio support server to the portable device associated with the identifier of the audio stream; displaying the text stream with the portable device.
Support for fastening a coaxial attenuator, said attenuator being composed of a main body, comprising an input connector and an output connector, and of a circumferential input plate, of a circumferential output plate and of at least three circumferential intermediate plates distributed between the input plate and the output plate, all the plates (6e, 6a, 6s) being arranged on the main body, said fastening support comprising: - a supporting structure comprising a front face able to accommodate the input plate and a rear face able to accommodate the output plate, - at least one first fastening device able to fasten said coaxial attenuator on said support, and - at least one second fastening device able to fasten said support on a rigid structure, said fastening support being characterized in that it comprises: - at least two partitions (18, 20) integral with the supporting structure and arranged between the front face and the rear face, the at least two partitions (18, 20) being able to be inserted between the at least three intermediate plates. - a supporting structure comprising a front face able to accommodate the input plate and a rear face able to accommodate the output plate, - at least one first fastening device able to fasten said coaxial attenuator on said support, and - at least one second fastening device able to fasten said support on a rigid structure, said fastening support being characterized in that it comprises: - at least two partitions (18, 20) integral with the supporting structure and arranged between the front face and the rear face, the at least two partitions (18, 20) being able to be inserted between the at least three intermediate plates. - at least two partitions (18, 20) integral with the supporting structure and arranged between the front face and the rear face, the at least two partitions (18, 20) being able to be inserted between the at least three intermediate plates.
Method for improving the safety of a maritime platform, installed at sea or navigating at sea, comprising an observation of sea waves striking the maritime platform, an operation of the maritime platform being controlled via a control system, wherein the method is characterized in that it comprises steps of: - acquiring elevation values of the sea surface at a plurality of points, making it possible to characterize at least one wave group, a sea wave being likened to a wave defined by a period and an amplitude, - calculating (74, 76) at least one characteristic quantity of each wave group, - comparing the calculated characteristic quantity with a hazard threshold, - if the comparison indicates the hazard threshold is crossed, raising an alert intended for the control system. - acquiring elevation values of the sea surface at a plurality of points, making it possible to characterize at least one wave group, a sea wave being likened to a wave defined by a period and an amplitude, - calculating (74, 76) at least one characteristic quantity of each wave group, - comparing the calculated characteristic quantity with a hazard threshold, - if the comparison indicates the hazard threshold is crossed, raising an alert intended for the control system.
Geometry-detecting machine for a slender body, comprising a fixed reference frame (30, 31) provided with at least one pair of constraint points for said slender body and sensor means for the spatial detection of the geometry of said slender body, characterised in that said constraint points are in the shape of vertical constraints points (1, 3, 5) coupled in pairs by interconnecting means (4, 34) in turn making up vertical constraint points to be coupled in pairs on multiple layers until converging towards a single final constraint point (5, 35).
Mobile operating machine comprising a motor vehicle moved by an endothermic engine, an articulated arm associated with a concrete delivery pipe, a pumping unit suitable to pump concrete into said pipe and a stabilizing unit for stabilizing said operating machine during the pumping and delivery of said concrete, characterized in that said endothermic engine is provided with at least a first power take-off and a second power take-off, distinct from the first power take-off, which can be activated selectively with respect to each other, in that at least one hydraulic pump which drives said articulated arm and said stabilizing unit, an electric motor and an electric accumulator are connected to said first power take-off by means of a first drive axis, and at least said pumping unit is connected to said second power take-off by means of a second drive axis, distinct from said first drive axis, and in that along said first power take-off there is a disengagement device which can be selectively activated to alternatively determine the drive of said hydraulic pump by means of said endothermic engine, or by means of said electric motor.
A correction method for correcting unintended spatial variation in lightness across a physical image produced by a xerographic process, the method comprising: producing a test image using the xerographic process, measuring a difference between actual lightness and intended lightness across at least part of the test image, and varying a light source level used subsequently in the xerographic process to correct the measured difference, characterized in that varying the light source level comprises: using a halftone compensation look-up table to vary the light source level; and using a table of multiplier values to vary the light source level to correct for spatial variation when producing images. producing a test image using the xerographic process, measuring a difference between actual lightness and intended lightness across at least part of the test image, and varying a light source level used subsequently in the xerographic process to correct the measured difference, characterized in that varying the light source level comprises: using a halftone compensation look-up table to vary the light source level; and using a table of multiplier values to vary the light source level to correct for spatial variation when producing images. using a halftone compensation look-up table to vary the light source level; and using a table of multiplier values to vary the light source level to correct for spatial variation when producing images.
A method of supporting an oil tank on a fan case of a gas turbine engine, the method comprising: attaching a first mount between a leading side of the oil tank and the fan case, the first mount constraining the oil tank in three degrees of freedom, wherein the first mount comprises a tripod having three legs (214a, 214b, 214c), wherein a head of the tripod is mounted to a spherical joint fixedly secured to the fan case, wherein each of the legs (214a, 214b, 214c) of the tripod is secured to the oil tank at one end and the head at another opposite end, wherein one of the legs of the tripod is secured to the head via a spherical joint; attaching a second mount between a trailing side of the oil tank and the fan case, the trailing side being opposite the leading side, the second mount constraining the oil tank in two degrees of freedom, wherein the second mount is a triangle mount having two legs (218a, 218b) secured to the oil tank via a spherical joint at one end and fixedly secured to the fan case via spherical joints of flange mounts (220a, 220b); and attaching a third mount between the trailing side of the oil tank and the fan case, the third mount constraining the oil tank in one degree of freedom, wherein the third mount is a rod coupled to the oil tank via a spherical joint at one end and secured to the fan case at an opposite end. attaching a first mount between a leading side of the oil tank and the fan case, the first mount constraining the oil tank in three degrees of freedom, wherein the first mount comprises a tripod having three legs (214a, 214b, 214c), wherein a head of the tripod is mounted to a spherical joint fixedly secured to the fan case, wherein each of the legs (214a, 214b, 214c) of the tripod is secured to the oil tank at one end and the head at another opposite end, wherein one of the legs of the tripod is secured to the head via a spherical joint; attaching a second mount between a trailing side of the oil tank and the fan case, the trailing side being opposite the leading side, the second mount constraining the oil tank in two degrees of freedom, wherein the second mount is a triangle mount having two legs (218a, 218b) secured to the oil tank via a spherical joint at one end and fixedly secured to the fan case via spherical joints of flange mounts (220a, 220b); and attaching a third mount between the trailing side of the oil tank and the fan case, the third mount constraining the oil tank in one degree of freedom, wherein the third mount is a rod coupled to the oil tank via a spherical joint at one end and secured to the fan case at an opposite end.
A gas chromatography analysis system, comprising: a gas chromatography column, the gas chromatography column configured to provide at least one gas analyte to be analyzed; a gas flow cell coupled to the gas chromatography column so as to receive a flow of the analyte from the gas chromatography column; a detection space within the gas flow cell; a heater thermally coupled to gas flow cell, the heater elevating the temperature of the gas flow cell so as to prevent condensation in the gas flow cell; a light source mechanically coupled to the gas flow cell; and a detector mechanically coupled to the gas flow cell, the gas flow cell configured to pass light from the light source through the detection space to the detector for detecting a property of the analyte; the gas chromatography analysis system being characterised in that it is configured to allow for movement of the gas flow cell from thermal expansion of the gas flow cell by allowing for at least one of the light source and the detector to move, the mechanical coupling of the light source and the detector to the gas flow cell being such that movement of the gas flow cell imparts movement to at least one of the light source or the detector. a gas chromatography column, the gas chromatography column configured to provide at least one gas analyte to be analyzed; a gas flow cell coupled to the gas chromatography column so as to receive a flow of the analyte from the gas chromatography column; a detection space within the gas flow cell; a heater thermally coupled to gas flow cell, the heater elevating the temperature of the gas flow cell so as to prevent condensation in the gas flow cell; a light source mechanically coupled to the gas flow cell; and a detector mechanically coupled to the gas flow cell, the gas flow cell configured to pass light from the light source through the detection space to the detector for detecting a property of the analyte; the gas chromatography analysis system being characterised in that it is configured to allow for movement of the gas flow cell from thermal expansion of the gas flow cell by allowing for at least one of the light source and the detector to move, the mechanical coupling of the light source and the detector to the gas flow cell being such that movement of the gas flow cell imparts movement to at least one of the light source or the detector.
A value document having a flat substrate with a first surface and a second surface, wherein - the first surface and/or the second surface of the substrate is equipped with at least one security element, - the first surface has a first protective layer of a UV-curable lacquer, and the second surface has a second protective layer of a UV-curable lacquer, - the first and the second protective layer cover the at least one security element and the first and the second surface of the substrate substantially over the full area, - the first protective layer has a first surface and the second protective layer has a second surface, - the first protective layer and/or the second protective layer has at least one matted region and at least one non-matted region, or regions with different degrees of luster, and - the at least one security element is covered by a non-matted protective layer region or a protective layer region with a high degree of luster, characterized in that the first protective layer surface and/or the second protective layer surface has at least one region with a micro-folding structure and at least one region without micro-folding structure, or regions with different micro-folding structures, thereby producing the at least one matted protective layer region and the at least one non-matted protective layer region, or the protective layer regions with different degrees of luster. - the first surface and/or the second surface of the substrate is equipped with at least one security element, - the first surface has a first protective layer of a UV-curable lacquer, and the second surface has a second protective layer of a UV-curable lacquer, - the first and the second protective layer cover the at least one security element and the first and the second surface of the substrate substantially over the full area, - the first protective layer has a first surface and the second protective layer has a second surface, - the first protective layer and/or the second protective layer has at least one matted region and at least one non-matted region, or regions with different degrees of luster, and - the at least one security element is covered by a non-matted protective layer region or a protective layer region with a high degree of luster,
Arrangement with: - a transponder and - a metal component allocated to the transponder, wherein an aerial for the transponder is formed by means of a recess in the metal component, wherein the recess is formed with a breakthrough, characterised in that - a cover is allocated to the recess, wherein a cavity is formed which is enclosed by the cover and a region of the metal component in which the cavity is formed, - the cavity is at least partially filled with a dielectric material, and - the cover comprises a metallic material. - a transponder and - a metal component allocated to the transponder, wherein an aerial for the transponder is formed by means of a recess in the metal component, wherein the recess is formed with a breakthrough, characterised in that - a cover is allocated to the recess, wherein a cavity is formed which is enclosed by the cover and a region of the metal component in which the cavity is formed, - the cavity is at least partially filled with a dielectric material, and - the cover comprises a metallic material.
A method of preparing 1,2-pentanediol through a hydrogenation reaction of a starting material comprising at least one of furfural and furfuryl alcohol in presence of a catalyst, wherein the catalyst is configured such that a catalytically active metal is supported on a basic support, and the catalytically active metal comprises tin and at least one transition metal as an additional metal wherein the basic support is at least one selected from among alkali metal oxide, alkaline earth metal oxide, lanthanide oxide, zinc oxide, spinel, perovskite, hydrotalcite, calcium silicate, MgO, CaO, BaO-ZnO, MgO-Al 2 O 3, ZnO, ZrO 2, CeO 2, hydroxyapatite, Mg 2 Al 2 O 4, ZnAl 2 O 4, BaTiO 3, ZnTiO 3, Cs 2 O, CsX (wherein X = OH, Cl, Br, or I), Zr-based MOFs, Mg-based MOFs, Ca-based MOFs, Sr-based MOFs, Ba-based MOFs, Mg 2 Al 2 O 4, ZnAl 2 O 4, BaTiO 3, and ZnTiO 3. wherein the catalyst is configured such that a catalytically active metal is supported on a basic support, and the catalytically active metal comprises tin and at least one transition metal as an additional metal wherein the basic support is at least one selected from among alkali metal oxide, alkaline earth metal oxide, lanthanide oxide, zinc oxide, spinel, perovskite, hydrotalcite, calcium silicate, MgO, CaO, BaO-ZnO, MgO-Al 2 O 3, ZnO, ZrO 2, CeO 2, hydroxyapatite, Mg 2 Al 2 O 4, ZnAl 2 O 4, BaTiO 3, ZnTiO 3, Cs 2 O, CsX (wherein X = OH, Cl, Br, or I), Zr-based MOFs, Mg-based MOFs, Ca-based MOFs, Sr-based MOFs, Ba-based MOFs, Mg 2 Al 2 O 4, ZnAl 2 O 4, BaTiO 3, and ZnTiO 3.
A controller for a motor having an output element and at least one stator winding, comprising: a power circuit that controls current in the at least one phase winding of the motor, and a signal circuit that controls the power circuit; characterised in that the controller further comprises: an electrical ground (420, 422) common to said power circuit and said signal circuit, and electrical connectors connecting said electrical ground (420, 422) to said power circuit and said signal circuit, said power circuit and said signal circuit, said electrical ground, and said electrical connectors being at least partially encapsulated within a high-thermal-conductivity casting that at least in part encases said controller to provide a conductive thermal path to communicate heat generated within said controller to the exterior of said controller; and further wherein said controller is configured to produce substantially the same potential throughout said electrical ground (420, 422) during the operation of said controller. a power circuit that controls current in the at least one phase winding of the motor, and a signal circuit that controls the power circuit; an electrical ground (420, 422) common to said power circuit and said signal circuit, and electrical connectors connecting said electrical ground (420, 422) to said power circuit and said signal circuit, said power circuit and said signal circuit, said electrical ground, and said electrical connectors being at least partially encapsulated within a high-thermal-conductivity casting that at least in part encases said controller to provide a conductive thermal path to communicate heat generated within said controller to the exterior of said controller; and further wherein said controller is configured to produce substantially the same potential throughout said electrical ground (420, 422) during the operation of said controller.