mhurhangee/ep-ind-claims huggingface dataset:
A resin structure having an impact absorbing property, comprising: a resin member including a resin material and having an uneven thickness structure, wherein the resin member includes a thick-walled portion having an average thickness of a first value in an impact absorbing direction and two thin-walled portions having an average thickness of less than the first value in the impact absorbing direction, the overall shape of the resin member is convex into the impact absorbing direction, the thick-walled portion is disposed between the two thin-walled portions, one thin-walled portion, the thick-walled portion, and the other thin-walled portion are disposed in that order in a direction perpendicular to the impact absorbing direction, and the following Expressions and are satisfied, 1 < t 1 / t 2 < 1.545 × L / d − 0.107 L / d > 0 wherein t1 represents an average thickness (mm) of the thick-walled portion, t2 represents an average thickness (mm) of the thin-walled portions, L represents an inter-connection-point distance (mm) between connection points which are formed on the two thin-walled portions, respectively, and are connected to other structures, and d represents a maximum height (mm) in the impact absorbing direction in a range between the connection points of the resin member. a resin member including a resin material and having an uneven thickness structure, wherein the resin member includes a thick-walled portion having an average thickness of a first value in an impact absorbing direction and two thin-walled portions having an average thickness of less than the first value in the impact absorbing direction, the overall shape of the resin member is convex into the impact absorbing direction, the thick-walled portion is disposed between the two thin-walled portions, one thin-walled portion, the thick-walled portion, and the other thin-walled portion are disposed in that order in a direction perpendicular to the impact absorbing direction, and the following Expressions and are satisfied, 1 < t 1 / t 2 < 1.545 × L / d − 0.107 L / d > 0 wherein t1 represents an average thickness (mm) of the thick-walled portion, t2 represents an average thickness (mm) of the thin-walled portions, L represents an inter-connection-point distance (mm) between connection points which are formed on the two thin-walled portions, respectively, and are connected to other structures, and d represents a maximum height (mm) in the impact absorbing direction in a range between the connection points of the resin member.
Touch interface (100, 200, 300, 400, 800) comprising a contact surface and means of vibrating (118, 120, 202, 204, 500) said contact surface provided for generating stationary waves in said contact surface: - said contact surface comprises at least one transparent portion producing an observation surface through said touch interface (100, 200, 300, 400, 800), and - said vibration means comprise at least one rigid piezoelectric layer (118, 120, 202, 204, 500), firmly fixed to said contact surface and arranged on the periphery of said transparent portion; and said interface (100, 200, 300, 400, 800) being characterized in that said at least one piezoelectric layer (118, 120, 202, 204, 500) is arranged in a plane non parallel to the contact surface. - said contact surface comprises at least one transparent portion producing an observation surface through said touch interface (100, 200, 300, 400, 800), and - said vibration means comprise at least one rigid piezoelectric layer (118, 120, 202, 204, 500), firmly fixed to said contact surface and arranged on the periphery of said transparent portion; and
A composition comprising a therapeutically effective amount of dexpramipexole for use in the treatment of a condition characterized by elevated levels of mast cells, elevated levels of activation of mast cells, elevated levels of basophils, elevated levels of activation of basophils, elevated levels of eosinophils, elevated levels of activation of eosinophils, or a combination thereof, wherein the condition is selected from the group consisting of chronic urticaria, chronic idiopathic urticaria, chronic autoimmune urticaria, aquagenic urticaria, cholinergic urticaria, contact urticaria, exercise-induced urticaria, physical urticaria, acquired cold urticaria, delayed pressure urticaria, heat urticaria, solar urticaria, demographic urticaria, urticaria factitia, urticarial pigmentosa, and any combination thereof.
Method for producing a wall-flow filter for purifying gases from small particulate solids, wherein a dry powder/gas aerosol is applied to the inlet region of the dry filter, characterized in that the powder contains a pyrogenic, high-melting metal compound produced by flame hydrolysis or flame oxidation from a metal precursor in a flame, and the amount of pyrogenic high-melting compound in the filter is less than 5 g/l, in relation to the filter volume.
A method for determining a maximum power reduction of an uplink signal, the uplink signal being transmitted on a carrier, the carrier having a range of frequencies, wherein frequencies outside of the carrier frequency range include adjacent channel regions (406, 408), the method comprising: identifying resource blocks (416C, 418C) of the carrier that have been allocated to transmit the uplink signal; determining, based on the identified resource blocks, a power spectral density function, wherein the power spectral density function captures carrier leakage; determining a metric, the metric being based on a third order convolution of the power spectral density function; and determining a maximum power reduction for the adjacent channel regions (406, 408) based on the determined metric; and reducing, by a wireless terminal (103, 104, 200), transmit power of the wireless terminal based on the determined maximum power reduction. identifying resource blocks (416C, 418C) of the carrier that have been allocated to transmit the uplink signal; determining, based on the identified resource blocks, a power spectral density function, wherein the power spectral density function captures carrier leakage; determining a metric, the metric being based on a third order convolution of the power spectral density function; and determining a maximum power reduction for the adjacent channel regions (406, 408) based on the determined metric; and reducing, by a wireless terminal (103, 104, 200), transmit power of the wireless terminal based on the determined maximum power reduction.
A laminated glass sheet with a fixing device inserted into a through-hole for objects, - the laminated glass sheet being made up of one sheet and at least one other rigid sheet made of glass or of plastic and of a layer of adhesive connecting the two rigid sheets by bonding their surfaces together, - the through-hole consisting of two holes of different sizes (2L and 3L) in the two rigid sheets, and - the fixing device comprising at least two parts introduced into the through-hole, pressing against surfaces around the edge of the through-hole, which surfaces lie one facing the other, characterized in that the two parts of the fixing device press from both sides against the surfaces around the edge surrounding the smaller hole made in the sheet, in that region of the walls of this smaller hole that exhibits an edge compression stress that is increased by heat treatment by comparison with the remainder of the surface of the sheet. - the laminated glass sheet being made up of one sheet and at least one other rigid sheet made of glass or of plastic and of a layer of adhesive connecting the two rigid sheets by bonding their surfaces together, - the through-hole consisting of two holes of different sizes (2L and 3L) in the two rigid sheets, and - the fixing device comprising at least two parts introduced into the through-hole, pressing against surfaces around the edge of the through-hole, which surfaces lie one facing the other, characterized in that the two parts of the fixing device press from both sides against the surfaces around the edge surrounding the smaller hole made in the sheet, in that region of the walls of this smaller hole that exhibits an edge compression stress that is increased by heat treatment by comparison with the remainder of the surface of the sheet.
A passenger aircraft with a passenger cabin, comprising: a fully functional door that is openable and closable and that is designed for the entry and exit of passengers; and an emergency exit door that is designed exclusively for the emergency exit of passengers from the passenger cabin; wherein the emergency exit door is arranged in a region of an external skin of the passenger aircraft, which region is arranged forward or aft of wings of the passenger aircraft, characterized in that the emergency exit door is locked in press fit with the external skin by bolts screwed into nuts, said bolts comprising a conic part, wherein the bolts frame a door cutout of the emergency exit door, and wherein the emergency exit door comprises at least one explosive charge which is adapted for destroying the bolts or the nuts each at a predetermined breaking point such that at least the conic part can be pulled by a mechanical system out of the press fit. a fully functional door that is openable and closable and that is designed for the entry and exit of passengers; and an emergency exit door that is designed exclusively for the emergency exit of passengers from the passenger cabin; wherein the emergency exit door is arranged in a region of an external skin of the passenger aircraft, which region is arranged forward or aft of wings of the passenger aircraft,
A printed material comprising: a base material being a metallic base material or a ceramic base material; an ink-receiving layer disposed on the base material and formed of a cured product of a resin composition; and an ink layer disposed on the ink-receiving layer and formed of a cured product of a cationic actinic radiation-curable ink, wherein: the cationic actinic radiation-curable ink contains a cationically-polymerizable compound, an epoxy group-containing silane coupling agent, a hydroxyl group-containing oxetane compound and a photopolymerization initiator, a content of the epoxy group-containing silane coupling agent in the cationic actinic radiation-curable ink is in a range of 0.5 to 10.0 mass%, and a content of the hydroxyl group-containing oxetane compound in the cationic actinic radiation-curable ink is in a range of 10 to 50 mass%. a base material being a metallic base material or a ceramic base material; an ink-receiving layer disposed on the base material and formed of a cured product of a resin composition; and an ink layer disposed on the ink-receiving layer and formed of a cured product of a cationic actinic radiation-curable ink, wherein: the cationic actinic radiation-curable ink contains a cationically-polymerizable compound, an epoxy group-containing silane coupling agent, a hydroxyl group-containing oxetane compound and a photopolymerization initiator, a content of the epoxy group-containing silane coupling agent in the cationic actinic radiation-curable ink is in a range of 0.5 to 10.0 mass%, and a content of the hydroxyl group-containing oxetane compound in the cationic actinic radiation-curable ink is in a range of 10 to 50 mass%. the cationic actinic radiation-curable ink contains a cationically-polymerizable compound, an epoxy group-containing silane coupling agent, a hydroxyl group-containing oxetane compound and a photopolymerization initiator, a content of the epoxy group-containing silane coupling agent in the cationic actinic radiation-curable ink is in a range of 0.5 to 10.0 mass%, and a content of the hydroxyl group-containing oxetane compound in the cationic actinic radiation-curable ink is in a range of 10 to 50 mass%.
An electromagnetic wave absorbing particle dispersion comprising: electromagnetic wave absorbing particles containing cesium tungsten oxide represented by a general formula Cs x W 1-y O 3-z and having an orthorhombic crystal structure or a hexagonal crystal structure, x, y and z being 0.2≤x≤0.4, 0<y≤0.4, and 0<z≤0.46; and a solid medium, wherein the electromagnetic wave absorbing particles are dispersed in the solid medium. electromagnetic wave absorbing particles containing cesium tungsten oxide represented by a general formula Cs x W 1-y O 3-z and having an orthorhombic crystal structure or a hexagonal crystal structure, x, y and z being 0.2≤x≤0.4, 0<y≤0.4, and 0<z≤0.46; and a solid medium, wherein the electromagnetic wave absorbing particles are dispersed in the solid medium.
Printing device for a 3D printer, comprising a metering unit for melting and plasticizing a material to be printed, and a discharge unit for printing the material supplied via the metering unit, wherein the metering unit and the discharge unit are separate from one another and can be connected to each other, wherein the discharge unit can be transported to the metering unit in order to receive material and a nozzle of the discharge unit and a coupling point of the metering unit come into contact with each other in order to connect the discharge unit to the metering unit, characterized in that the discharge unit has a discharge piston that interacts with a means, with which a force (F F) can be applied, counter to a filling direction of the discharge unit, while material is being received. the metering unit and the discharge unit are separate from one another and can be connected to each other, wherein the discharge unit can be transported to the metering unit in order to receive material and a nozzle of the discharge unit and a coupling point of the metering unit come into contact with each other in order to connect the discharge unit to the metering unit, characterized in that the discharge unit has a discharge piston that interacts with a means, with which a force (F F) can be applied, counter to a filling direction of the discharge unit, while material is being received.
A fluid sterilization device (10, 110, 210) comprising: a housing (12, 112, 212) including a first housing (20, 120, 220) that defines an upstream side of a flow passage (13, 113, 213) extending in a longitudinal direction and a second housing (30, 230) that defines a downstream side of the flow passage and that is connectable to the first housing; a hollow fiber filter (42, 142, 242) provided in the first housing and extending in the longitudinal direction; and a light source (50, 250) provided in the housing and including a light emitting diode (52, 252) that emits ultraviolet light, a reflector that is provided to surround the light emitting diode, and a sealing window (54, 254) that seals the light emitting diode and the reflector, wherein the light source is positioned near an exit of the hollow fiber filter on the central axis of the housing to radiate the ultraviolet light toward the downstream side of the flow passage opposite to the hollow fiber filter, and wherein the reflector reflects the ultraviolet light traveling from the light emitting diode toward the filter in the direction of the downstream side of the flow passage so as to irradiate a fluid flowing in a laminar flow state in the second housing after passing through the hollow fiber filter with the ultraviolet light. a housing (12, 112, 212) including a first housing (20, 120, 220) that defines an upstream side of a flow passage (13, 113, 213) extending in a longitudinal direction and a second housing (30, 230) that defines a downstream side of the flow passage and that is connectable to the first housing; a hollow fiber filter (42, 142, 242) provided in the first housing and extending in the longitudinal direction; and a light source (50, 250) provided in the housing and including a light emitting diode (52, 252) that emits ultraviolet light, a reflector that is provided to surround the light emitting diode, and a sealing window (54, 254) that seals the light emitting diode and the reflector, wherein the light source is positioned near an exit of the hollow fiber filter on the central axis of the housing to radiate the ultraviolet light toward the downstream side of the flow passage opposite to the hollow fiber filter, and wherein the reflector reflects the ultraviolet light traveling from the light emitting diode toward the filter in the direction of the downstream side of the flow passage so as to irradiate a fluid flowing in a laminar flow state in the second housing after passing through the hollow fiber filter with the ultraviolet light.
A microscope apparatus for observing a sample, comprising: an image obtaining unit (18, 32) that obtains an image on a XZ plane observation cross-section inside the sample; an inclining unit that inclines the entire observation cross-section around a rotation axis (β0) extending in the X direction at a depth in the Z direction where an observation target (α) which appears in the image is detected, based on at least one of a profile and a brightness value of the cross-section of the observation target (α) in the image; and a folding unit that specifies an edge portion of the cross-section of the observation target (α) in the image obtained by inclining the observation cross-section by the inclining unit, that specifies an axis (β1) extending in the X direction and passing through said edge portion, said axis (β1) defining a boundary between the two sides of the obtained image of the observation cross-section, and that folds around said axis (β1) the part of the observation cross-section located on the side of the axis (β1) where the cross-section of the observation target does not appear, up to an angle where the cross-section of the observation target (α) appears, so as to form an observation cross-section having a profile which is folded along the axis (β1). an image obtaining unit (18, 32) that obtains an image on a XZ plane observation cross-section inside the sample; an inclining unit that inclines the entire observation cross-section around a rotation axis (β0) extending in the X direction at a depth in the Z direction where an observation target (α) which appears in the image is detected, based on at least one of a profile and a brightness value of the cross-section of the observation target (α) in the image; and a folding unit that specifies an edge portion of the cross-section of the observation target (α) in the image obtained by inclining the observation cross-section by the inclining unit, that specifies an axis (β1) extending in the X direction and passing through said edge portion, said axis (β1) defining a boundary between the two sides of the obtained image of the observation cross-section, and that folds around said axis (β1) the part of the observation cross-section located on the side of the axis (β1) where the cross-section of the observation target does not appear, up to an angle where the cross-section of the observation target (α) appears, so as to form an observation cross-section having a profile which is folded along the axis (β1).
A housing for air-conditioning devices, composed of spars which are formed from a plastic profile reinforced by metal profiles and of composite panels which are formed from shells that are peripherally connected in the peripheral region and contain insulating material, characterized in that the composite panels consist of an inner shell which is made of sheet metal, the connecting edge of which, running in the peripheral region, lies in a plane parallel to and at a distance from the bottom of the same shell, to which edge an outer shell, made of sheet metal, is fastened or detachably secured, wherein there is provided in the region of this fastening edge a plastic profile which is plugged onto a peripheral bent flange of the outer shell, wherein said flange lies in a plane which is at a distance from that surface of the profile that bears against the connecting edge of the inner shell in the mounted state of the outer shell.
A method of controlling data packet congestion in a data packet network having a plurality of egress ports from which data packets are transmitted out of the network, the method comprises the steps of: determining a reference flow condition that results in data packet congestion at a node of the data packet network; identifying a data packet flow having a flow condition equivalent to the reference flow condition; and characterized in that the method further comprises for such an identified data packet flow the steps of: causing a data packet to be dropped from the identified data packet flow; allowing a predetermined number of data packets from the identified data packet flow to proceed; and dropping data packets from the identified data packet flow subsequent to the predetermined number of data packets, until it is detected that the identified data packet flow contains no data packets that are yet to be sent. determining a reference flow condition that results in data packet congestion at a node of the data packet network; identifying a data packet flow having a flow condition equivalent to the reference flow condition; and characterized in that the method further comprises for such an identified data packet flow the steps of: causing a data packet to be dropped from the identified data packet flow; allowing a predetermined number of data packets from the identified data packet flow to proceed; and dropping data packets from the identified data packet flow subsequent to the predetermined number of data packets, until it is detected that the identified data packet flow contains no data packets that are yet to be sent. causing a data packet to be dropped from the identified data packet flow; allowing a predetermined number of data packets from the identified data packet flow to proceed; and dropping data packets from the identified data packet flow subsequent to the predetermined number of data packets, until it is detected that the identified data packet flow contains no data packets that are yet to be sent.