mhurhangee/ep-ind-claims huggingface dataset:
A combination of a server chassis for an electronic device and an airflow device, comprising: a cooling air passage structure formed external to and along a side of the server chassis, the cooling air passage structure extending in a depth direction of the server chassis from a front side of the server chassis; an airflow channel formed within the cooling air passage structure, the airflow channel extending in the depth direction; and a vent (20, 42) fluidically connecting the airflow channel with an interior of the server chassis at a vent location that is rearward in the depth direction relative to the front side; wherein the cooling air passage structure is a slide rail of the server chassis; wherein the slide rail is a first slide rail, the side of the server chassis is a first side, the airflow channel is a first airflow channel, and the vent is a first vent, further comprising: a second slide rail of the server chassis external to and along a second side of the server chassis; a second airflow channel that is in the second slide rail extending along the depth direction of the server chassis; and a second vent to fluidically connect the second airflow channel with the interior of the server chassis. a cooling air passage structure formed external to and along a side of the server chassis, the cooling air passage structure extending in a depth direction of the server chassis from a front side of the server chassis; an airflow channel formed within the cooling air passage structure, the airflow channel extending in the depth direction; and a vent (20, 42) fluidically connecting the airflow channel with an interior of the server chassis at a vent location that is rearward in the depth direction relative to the front side; wherein the cooling air passage structure is a slide rail of the server chassis; wherein the slide rail is a first slide rail, the side of the server chassis is a first side, the airflow channel is a first airflow channel, and the vent is a first vent, further comprising: a second slide rail of the server chassis external to and along a second side of the server chassis; a second airflow channel that is in the second slide rail extending along the depth direction of the server chassis; and a second vent to fluidically connect the second airflow channel with the interior of the server chassis. a second slide rail of the server chassis external to and along a second side of the server chassis; a second airflow channel that is in the second slide rail extending along the depth direction of the server chassis; and a second vent to fluidically connect the second airflow channel with the interior of the server chassis.
An apparatus for providing electrostimulation of a biological tissue, the apparatus comprising: a first electrical signal provider for providing a first alternating electric field in the biological tissue, the first alternating electric field having a first frequency; a second electrical signal provider for providing a second alternating electric field in the biological tissue the second alternating electric field having a second frequency; wherein the first alternating electric field and the second alternating electric field provide a combined field in the biological tissue, and the apparatus comprises a controller configured to provide variations of at least one of the first frequency and the second frequency so that the combined field provides a pulsed interferential stimulation signal, wherein the variations provide a series of first intervals during which the first frequency matches the second frequency, and the first intervals are interleaved with a series of second intervals during which the first frequency is different from the second frequency. a first electrical signal provider for providing a first alternating electric field in the biological tissue, the first alternating electric field having a first frequency; a second electrical signal provider for providing a second alternating electric field in the biological tissue the second alternating electric field having a second frequency; wherein the first alternating electric field and the second alternating electric field provide a combined field in the biological tissue, and the apparatus comprises a controller configured to provide variations of at least one of the first frequency and the second frequency so that the combined field provides a pulsed interferential stimulation signal, wherein the variations provide a series of first intervals during which the first frequency matches the second frequency, and the first intervals are interleaved with a series of second intervals during which the first frequency is different from the second frequency.
A method for manufacturing a composite platform for an aircraft turbine engine fan, this platform comprising a wall of elongated shape and configured to extend between two fan vanes, this wall comprising an aerodynamic external face and an internal face on which is located an attachment tab configured to be attached to a fan disc, comprising the steps of: a) making a preform by three-dimensional weaving of fibres, this preform having an elongated shape along an axis of elongation, b) unbinding a portion of the fibres of the preform along said axis, from a longitudinal end of the preform, so as to disengage at least one longitudinal layer of fibres from the remainder of the preform, said at least one layer of fibres being separated from the remainder of the preform by a longitudinal space, characterised in that the method comprises the steps of: c) inserting a metallic framework into this longitudinal space, from said longitudinal end of the preform, this framework being formed in one part with said attachment tab and being positioned in said space according to the desired position of said tab, and d) injecting a thermosetting or thermoplastic resin into the preform so as to form said wall and to secure the framework to said wall. comprising the steps of: a) making a preform by three-dimensional weaving of fibres, this preform having an elongated shape along an axis of elongation, b) unbinding a portion of the fibres of the preform along said axis, from a longitudinal end of the preform, so as to disengage at least one longitudinal layer of fibres from the remainder of the preform, said at least one layer of fibres being separated from the remainder of the preform by a longitudinal space, a) making a preform by three-dimensional weaving of fibres, this preform having an elongated shape along an axis of elongation, b) unbinding a portion of the fibres of the preform along said axis, from a longitudinal end of the preform, so as to disengage at least one longitudinal layer of fibres from the remainder of the preform, said at least one layer of fibres being separated from the remainder of the preform by a longitudinal space, characterised in that the method comprises the steps of: c) inserting a metallic framework into this longitudinal space, from said longitudinal end of the preform, this framework being formed in one part with said attachment tab and being positioned in said space according to the desired position of said tab, and d) injecting a thermosetting or thermoplastic resin into the preform so as to form said wall and to secure the framework to said wall. c) inserting a metallic framework into this longitudinal space, from said longitudinal end of the preform, this framework being formed in one part with said attachment tab and being positioned in said space according to the desired position of said tab, and d) injecting a thermosetting or thermoplastic resin into the preform so as to form said wall and to secure the framework to said wall.
Process for producing polycrystalline silicon, comprising a) depositing polycrystalline silicon by means of CVD on at least one U-shaped support body which is heated by direct passage of current to a temperature at which polycrystalline silicon is deposited on the support body, resulting in formation of at least one U-shaped pair of polycrystalline silicon rods, each free end of the support body being connected to a graphite electrode and being supplied with power in this way; b) deinstalling the at least one pair of polycrystalline silicon rods from the reactor; c) removing graphite residues from the electrode ends of the at least two polycrystalline silicon rods of the at least one pair of polycrystalline silicon rods; d) comminuting the at least two polycrystalline silicon rods to give rod pieces or to give chunks; characterized in that the graphite residues are knocked off the electrode ends of each of the at least two polycrystalline silicon rods by means of at least one mechanical impulse. a) depositing polycrystalline silicon by means of CVD on at least one U-shaped support body which is heated by direct passage of current to a temperature at which polycrystalline silicon is deposited on the support body, resulting in formation of at least one U-shaped pair of polycrystalline silicon rods, each free end of the support body being connected to a graphite electrode and being supplied with power in this way; b) deinstalling the at least one pair of polycrystalline silicon rods from the reactor; c) removing graphite residues from the electrode ends of the at least two polycrystalline silicon rods of the at least one pair of polycrystalline silicon rods; d) comminuting the at least two polycrystalline silicon rods to give rod pieces or to give chunks;
An optical filter device (500, 500A, 500B) comprising: a variable wavelength interference filter having a pair of reflecting films (54, 55) opposed to each other, and a gap changing section adapted to change a gap dimension between the pair of reflecting films (54, 55); and at least one bandpass filter disposed on an optical axis of the pair of reflecting films (54, 55), wherein the bandpass filter has optical characteristics having a plurality of transmission wavelength bands (Rp) in which light is transmitted, and the transmission wavelength bands (Rp) are different from each other, characterized in that each of the transmission wavelength bands (Rp) is smaller than a half bandwidth of light emitted from the variable wavelength interference filter, wherein intervals between the transmission wavelength bands (Rp) are each larger than a half of a half bandwidth of light emitted from the variable wavelength interference filter. a variable wavelength interference filter having a pair of reflecting films (54, 55) opposed to each other, and a gap changing section adapted to change a gap dimension between the pair of reflecting films (54, 55); and at least one bandpass filter disposed on an optical axis of the pair of reflecting films (54, 55), wherein the bandpass filter has optical characteristics having a plurality of transmission wavelength bands (Rp) in which light is transmitted, and the transmission wavelength bands (Rp) are different from each other, characterized in that each of the transmission wavelength bands (Rp) is smaller than a half bandwidth of light emitted from the variable wavelength interference filter, wherein intervals between the transmission wavelength bands (Rp) are each larger than a half of a half bandwidth of light emitted from the variable wavelength interference filter.
A negative resist composition comprising: a silsesguioxane resin comprising a constituent unit represented by the following general formula: wherein R 1 represents a methylene group, a constituent unit represented by the following general formula: and a constituent unit represented by the following general formula: wherein R 2 represents a linear or branched alkylene group having 1 to 5 carbon atoms, and R 3 represents a linear or branched alkyl group having 1 to 5 carbon atoms. an acid generator component which generates an acid upon exposure, and a crosslinking agent component, the silsesquioxane resin comprising 50 to 95 mol% of the constituent unit, 5 to 40 mol% of the constituent unit and 0 to 20 mol% of the constituent unit, and the acid generator component and the crosslinking agent component being selected from a combination of an onium salt containing a fluorinated alkylsulfonic acid ion as an anion and a glycoluril-based or melamine-based crosslinking agent, a combination of an oxime sulfonate-based acid generator and an ethyleneurea-based crosslinking agent, or a combination of a mixture of an oxime sulfonate-based acid generator and a diazomethane-based acid generator and an ethyleneurea-based crosslinking agent.
An indication mechanism for an automatic applicator, particularly for insulin or other liquid preparations, particularly for multiple injection administration of set doses of a medicine from an exchangeable container, comprising an applicator housing, an assembly of at least two barrels movably coupled to each other, wherein an indication barrel mounted on a rotatable driving barrel, contains only a dose scale (2.1) on its external surface situated at a distance from the internal surface of the applicator housing, wherein the indication barrel rotates with the driving barrel and is mounted slidingly, co-axially and lengthwise, by means of a key coupling, on the external surface of the driving barrel, wherein the indication barrel is at its distal ending co-axially connected to a pull-push control nut which is mounted on the driving barrel and is mounted co-axially and slidingly in the applicator housing and secured against rotation relative to the applicator housing, wherein the indication barrel is mounted on the driving barrel to be pulled or pushed by the pull-push control nut, co-axially and lengthwise, along the driving barrel, wherein the indication barrel performs a spiral movement against the applicator housing and the driving barrel is connected to a mechanism for medicine dose setting and a driving element in the form of resilient means.
A method for wireless transmission, comprising: broadcasting, by a present device, a beacon frame, and establishing, via a downlink port of the present device, a connection with a first device which has scanned the beacon frame; receiving, by the present device, beacon frames broadcasted by a plurality of devices in a channel scanning manner, and determining a second device to be connected according to the received plurality of beacon frames; wherein a beacon frame broadcasted by the second device to be connected carries information indicating that a fusion mode is supported; the fusion mode comprises: when serving as an uplink identity, the second device supports being passively triggered to communicate with a device serving as a downlink identity, whereby under a condition that the second device is triggered by the device serving as a downlink identity, the second device can communicate with the device serving as a downlink identity; wherein the present device and the second device are Wi-Fi access points; establishing, by the present device, a connection with the second device through an uplink port of the present device; and initiating, by the present device, concurrently communication with the first device and the second device in an active trigger manner. broadcasting, by a present device, a beacon frame, and establishing, via a downlink port of the present device, a connection with a first device which has scanned the beacon frame; receiving, by the present device, beacon frames broadcasted by a plurality of devices in a channel scanning manner, and determining a second device to be connected according to the received plurality of beacon frames; wherein a beacon frame broadcasted by the second device to be connected carries information indicating that a fusion mode is supported; the fusion mode comprises: when serving as an uplink identity, the second device supports being passively triggered to communicate with a device serving as a downlink identity, whereby under a condition that the second device is triggered by the device serving as a downlink identity, the second device can communicate with the device serving as a downlink identity; wherein the present device and the second device are Wi-Fi access points; establishing, by the present device, a connection with the second device through an uplink port of the present device; and initiating, by the present device, concurrently communication with the first device and the second device in an active trigger manner.
A fuel processing apparatus comprising: an evaporation section that evaporates reforming water, the evaporation section including a channel that spirally extends along a funnel-shaped tilted surface toward a center, and the evaporation section being configured to cause the reforming water and source gas to flow through the channel; a shift-conversion section that causes processing gas to pass through a conversion catalyst to convert the gas, and a gas channel (501, 502, 503) that sends the gas from a reforming section to the shift-conversion section, the reforming section causing the gas to pass through a reformer catalyst to reform the gas, wherein the gas channel (501, 502, 503) includes an intermediate channel through which the gas flows, the intermediate channel being defined by pressing on a surface of the evaporation section side of a catalyst housing casing of the shift-conversion section and the intermediate channel being defined by groove that is a part of a surface joined with an irregular surface on which the channel of the evaporation section is defined so as to be allowed to release heat to the evaporation section, and the catalyst housing casing of the shift-conversion section being joined to the evaporation section along the channel of the evaporation section except for a part corresponding to the intermediate channel, a downstream end of the intermediate channel and an upstream end of the shift-conversion section are in communication with each other an evaporation section that evaporates reforming water, the evaporation section including a channel that spirally extends along a funnel-shaped tilted surface toward a center, and the evaporation section being configured to cause the reforming water and source gas to flow through the channel; a shift-conversion section that causes processing gas to pass through a conversion catalyst to convert the gas, and a gas channel (501, 502, 503) that sends the gas from a reforming section to the shift-conversion section, the reforming section causing the gas to pass through a reformer catalyst to reform the gas, wherein the gas channel (501, 502, 503) includes an intermediate channel through which the gas flows, the intermediate channel being defined by pressing on a surface of the evaporation section side of a catalyst housing casing of the shift-conversion section and the intermediate channel being defined by groove that is a part of a surface joined with an irregular surface on which the channel of the evaporation section is defined so as to be allowed to release heat to the evaporation section, and the catalyst housing casing of the shift-conversion section being joined to the evaporation section along the channel of the evaporation section except for a part corresponding to the intermediate channel, a downstream end of the intermediate channel and an upstream end of the shift-conversion section are in communication with each other
A food pressure cooking appliance including at least: - a bowl and a lid intended to be locked relative to the bowl to form with the latter a cooking chamber adapted to rise in pressure, - bayonet locking means forming first and second series of protrusions (5A - 5J, 6A - 6J) that are integral with the envelope of the lid and the envelope of the bowl, respectively, and that are intended to cooperate with each other to ensure the locking of the lid relative to the bowl, said appliance being characterized in that each protrusion of at least one of said series is consisted by a volume element that has opposite convex (50A - 50J) and concave (51A - 51J) faces, and that is formed by a localized radial deformation of the corresponding envelope, each volume element extending, along the vertical direction, between a root and an apex, each volume element having, in projection onto a radial plane (P0 - P3), a flared profile from the root to the apex. - a bowl and a lid intended to be locked relative to the bowl to form with the latter a cooking chamber adapted to rise in pressure, - bayonet locking means forming first and second series of protrusions (5A - 5J, 6A - 6J) that are integral with the envelope of the lid and the envelope of the bowl, respectively, and that are intended to cooperate with each other to ensure the locking of the lid relative to the bowl,
A method of determining MMP-8 activation in a sample which method comprises a) providing a previously obtained biological sample from a subject; b) detecting the presence of one or more MMP-8 activation product in the biological sample, wherein the MMP-8 activation product is part of active MMP-8, comprises sequence SEQ ID NO: 1 and/or sequence SEQ ID NO: 2 and have a size between 10-35 kDa, preferably 10-30 kDa, more preferably 10 kDa, 15 kDa, 20 kDa, 25 kDa, 30 kDa or 35 kDa: c) optionally correlating the presence of the MMP-8 activation product with the presence of active MMP-8 in the sample; and/or d) optionally correlating the presence of the MMP-8 activation product with the presence of other larger parts of active MMP-8 in the sample; wherein the presence of the MMP-8 activation product in the biological sample is indicative, confirmative and/or predictive for the presence of active MMP-8 in the sample. a) providing a previously obtained biological sample from a subject; b) detecting the presence of one or more MMP-8 activation product in the biological sample, wherein the MMP-8 activation product is part of active MMP-8, comprises sequence SEQ ID NO: 1 and/or sequence SEQ ID NO: 2 and have a size between 10-35 kDa, preferably 10-30 kDa, more preferably 10 kDa, 15 kDa, 20 kDa, 25 kDa, 30 kDa or 35 kDa: c) optionally correlating the presence of the MMP-8 activation product with the presence of active MMP-8 in the sample; and/or d) optionally correlating the presence of the MMP-8 activation product with the presence of other larger parts of active MMP-8 in the sample;
Use of a reactor, which comprises a reactor chamber with material containing chromium, which has a reactor outlet for the quantitative recovery of molecular hydrogen from solid, liquid or gaseous substances comprising heteroatoms, by pyrolysis, wherein for the pyrolysis of the substances in the reactor a zone having temperatures above 1100°C is generated, in which a reactive chromium layer of the material containing chromium that is accessible for the pyrolysis process of the substances is at least partially arranged and the hydrogen gas formed by the pyrolysis exits through the reactor outlet of the reactor chamber, and wherein further material containing chromium of the reactor chamber, which is arranged between the material containing chromium of the reactor chamber that is located during the pyrolysis in the zone having temperatures above 1100°C and the outlet of the reactor chamber, is arranged during the pyrolysis in a temperature zone which adjoins the zone having temperatures above 1100°C and in which the temperature decreases to a temperature of 500°C in the direction of the reactor outlet of the reactor chamber.
An immuno-modulatory progenitor cell, wherein the cell expresses on its surface detectable levels of MIC A/B, CD304 (Neuropilin 1), CD178 (FAS ligand), CD289 (Toll-like receptor 9), CD363 (Sphingosine-1-phosphate receptor 1), CD99, CD181 (C-X-C chemokine receptor type 1; CXCR1), epidermal growth factor receptor (EGF-R), CXCR2 and CD126.