mhurhangee/ep-ind-claims huggingface dataset:
A device for identifying an insect infestation of a stored product by detecting one or more target volatile organic compounds (VOCs) within a target fluid flow, the device comprising: a sensor array having a plurality of VOC sensors, wherein each VOC sensor includes: a substrate; a resistive heater circuit formed on a first side of the substrate a sensing circuit formed on a second side of the substrate; and a chemically-sensitive film formed over the sensing circuit on the second side of the substrate; characterized in that at least one VOC sensor of the plurality of VOC sensors is configured to detect the presence of 11,13-hexadecadienal as an egg-specific VOC. a sensor array having a plurality of VOC sensors, wherein each VOC sensor includes: a substrate; a resistive heater circuit formed on a first side of the substrate a sensing circuit formed on a second side of the substrate; and a chemically-sensitive film formed over the sensing circuit on the second side of the substrate; a substrate; a resistive heater circuit formed on a first side of the substrate a sensing circuit formed on a second side of the substrate; and a chemically-sensitive film formed over the sensing circuit on the second side of the substrate; characterized in that at least one VOC sensor of the plurality of VOC sensors is configured to detect the presence of 11,13-hexadecadienal as an egg-specific VOC.
Regenerator for cryo-coolers with helium as a working gas, comprising at least one cell with cell walls including an exterior and an inner side; wherein the cell walls are at least partly heat conductive, the at least one cell has a plurality of cavities (6; 6-i; 6a, 6b) connected with each other, which are surrounded by cell walls, the exterior of the cell walls at least partly delimits a flow channel for the helium working gas; the at least one cell has a pressure-equalizing opening, and the at least one cell includes flow channels for the working gas, which are delimited by cell walls (4; 104), and the cavities (6; 6-I; 6a, 6b) are filled with helium gas as a heat storage material, characterized in that the pressure-equalizing opening is formed as a capillary, and the flow channels are formed as a plurality of slots extending rectilinearly and parallel to each other and end before the rim of the cell so that the cell cannot fall apart, a circumferential channel is formed at the rim of the cell into which the plurality of cavities (6; 6-i; 6a, 6b) connected with each other open. at least one cell with cell walls including an exterior and an inner side; wherein the cell walls are at least partly heat conductive, the at least one cell has a plurality of cavities (6; 6-i; 6a, 6b) connected with each other, which are surrounded by cell walls, the exterior of the cell walls at least partly delimits a flow channel for the helium working gas; the at least one cell has a pressure-equalizing opening, and the at least one cell includes flow channels for the working gas, which are delimited by cell walls (4; 104), and the cavities (6; 6-I; 6a, 6b) are filled with helium gas as a heat storage material, characterized in that the pressure-equalizing opening is formed as a capillary, and the flow channels are formed as a plurality of slots extending rectilinearly and parallel to each other and end before the rim of the cell so that the cell cannot fall apart, a circumferential channel is formed at the rim of the cell into which the plurality of cavities (6; 6-i; 6a, 6b) connected with each other open.
A reflector device comprising: - a reflector element having a reflection surface, which is configured to reflect light waves incident on the reflection surface, and which has a preset shape, which is form-giving for the reflection; and having a rear side opposing the reflection surface, wherein the reflector element is configured as a retroreflective film, - a shell element having a depression, which accommodates the reflector element, wherein the reflector element is mounted in the depression such that the reflection surface faces away from the depression, and - a covering element having a transparent portion, through which the reflection surface of the reflector element is visible, and wherein the covering element and the shell element are arranged on each other such that they form a container for the reflector element, wherein - the covering element and the shell element are produced by back-molding the reflector element, such that the reflector device does not have a gap, - a shape of the depression of the shell element corresponds to the preset shape of the reflector element, such that the reflector element is mounted in the depression in a precise fit, - the shell element has a base element, in which the depression is located, and - the covering element surrounds the base element. - a reflector element having a reflection surface, which is configured to reflect light waves incident on the reflection surface, and which has a preset shape, which is form-giving for the reflection; and having a rear side opposing the reflection surface, wherein the reflector element is configured as a retroreflective film, - a shell element having a depression, which accommodates the reflector element, wherein the reflector element is mounted in the depression such that the reflection surface faces away from the depression, and - a covering element having a transparent portion, through which the reflection surface of the reflector element is visible, and wherein the covering element and the shell element are arranged on each other such that they form a container for the reflector element, wherein - the covering element and the shell element are produced by back-molding the reflector element, such that the reflector device does not have a gap, - a shape of the depression of the shell element corresponds to the preset shape of the reflector element, such that the reflector element is mounted in the depression in a precise fit, - the shell element has a base element, in which the depression is located, and - the covering element surrounds the base element.
A semiconductor device comprising: a semiconductor layer made of SiC of a first conductive type having an active region in which a trench gate type MIS transistor including a lattice-shaped first trench is formed and an outer circumferential region surrounding the active region in which is formed a stripe-shaped second trench extended from the end of the lattice-shaped first trench; a gate insulating film formed on a side surface and on a bottom surface of a gate trench including the first trench and the second trench, the gate insulating film integrally including a side-surface insulating film on the side surface and a bottom-surface insulating film on the bottom surface; and a gate electrode embedded in the gate trench, the gate electrode having an overlap portion overlapping the surface of the semiconductor layer in an upper edge formed at an opening end of the gate trench being arranged to surround the active region and crossing the stripe-shaped second trench; and a gate finger which is arranged to surround the active region along the outer circumferential region, and is electrically connected to the overlap portion of the gate electrode, wherein the side-surface insulating film includes an overhung portion selectively thicker than other portions of the side-surface insulating film so as to protrude inwardly of the gate trench at the upper edge, the gate finger is laid in a region inside of a longitudinal direction terminal portion of the second trench, and the terminal portion of the second trench protrudes outwardly of the gate finger. a semiconductor layer made of SiC of a first conductive type having an active region in which a trench gate type MIS transistor including a lattice-shaped first trench is formed and an outer circumferential region surrounding the active region in which is formed a stripe-shaped second trench extended from the end of the lattice-shaped first trench; a gate insulating film formed on a side surface and on a bottom surface of a gate trench including the first trench and the second trench, the gate insulating film integrally including a side-surface insulating film on the side surface and a bottom-surface insulating film on the bottom surface; and a gate electrode embedded in the gate trench, the gate electrode having an overlap portion overlapping the surface of the semiconductor layer in an upper edge formed at an opening end of the gate trench being arranged to surround the active region and crossing the stripe-shaped second trench; and a gate finger which is arranged to surround the active region along the outer circumferential region, and is electrically connected to the overlap portion of the gate electrode, wherein the side-surface insulating film includes an overhung portion selectively thicker than other portions of the side-surface insulating film so as to protrude inwardly of the gate trench at the upper edge, the gate finger is laid in a region inside of a longitudinal direction terminal portion of the second trench, and the terminal portion of the second trench protrudes outwardly of the gate finger.
A computer-implemented method performed by a foldable computing device comprising two display devices (104A, 104B) connected via a hinge and wherein the foldable computing device is configurable in multiple postures by varying a hinge angle between the two display devices, and wherein the two display devices have respective first and second display regions (106A, 106B), comprising: computing a score associated with a user interface component to be displayed in at least one of the first and second display regions; computing a score associated with an existing UI that will be occluded by the UI component if the UI component is displayed; performing a comparison between the score associated with the UI component to be displayed and the score associated with the existing UI that will be occluded by the UI component if displayed; selecting a rendering mode for the UI component from a plurality of rendering modes based, at least in part, on the comparison and a determined posture of the foldable computing device; and displaying the UI component in the selected rendering mode. computing a score associated with a user interface component to be displayed in at least one of the first and second display regions; computing a score associated with an existing UI that will be occluded by the UI component if the UI component is displayed; performing a comparison between the score associated with the UI component to be displayed and the score associated with the existing UI that will be occluded by the UI component if displayed; selecting a rendering mode for the UI component from a plurality of rendering modes based, at least in part, on the comparison and a determined posture of the foldable computing device; and displaying the UI component in the selected rendering mode.
A method of manufacturing an impregnated fibrous material comprising a fibrous material made of continuous fibers and at least one thermoplastic polymer matrix, characterized in that said impregnated fibrous material is produced as a single unidirectional ribbon or a plurality of unidirectional parallel ribbons and characterized in that said method comprises, a step of pre-impregnating said fibrous material while it is in the form of a roving or several parallel rovings with said thermoplastic material and at least one step of heating the thermoplastic matrix for melting, or maintaining in the molten state, said thermoplastic polymer after pre-impregnation, said at least one heating step being done using at least one non-heating and non-heat-conducting supporting part and at least one heating system, with the exception a heating calender, said roving(s) being in contact with part or all of the surface of said at least one supporting part and scrolling partially or wholly on the surface of said at least one supporting part at the heating system, said at least one supporting part being inside the heating system in its entirety, excluding any electrostatic method with deliberate charge, said method further comprising a step for shaping said roving or said parallel rovings of said impregnated fibrous material, by calendering using at least one heating calender in the form of a single unidirectional ribbon or a plurality of parallel unidirectional ribbons with, in the latter case, said heating calender including a plurality of calendering grooves, preferably up to 200 calendering grooves, in accordance with the number of said ribbons and with a pressure and/or separation between the rollers of said calender regulated by a governing system, a band press being present between the heating system and the calender and the porosity level in said pre-impregnated fibrous material being less than 10%, notably less than 5%, particularly less than 2%.
A damping assembly, comprising a damping section and a shaft sleeve sleeved onto the damping section, wherein the damping section comprises a first damping part and a second damping part that are arranged in an axial direction of the damping section, the shaft sleeve comprises a first shaft sleeve part and a second shaft sleeve part that are arranged in an axial direction of the shaft sleeve, the first shaft sleeve part is sleeved onto the first damping part and the second shaft sleeve part is sleeved onto the second damping part; the damping assembly characterised in that: an interference amount between the first shaft sleeve part and the first damping part is a first interference amount, an interference amount between the second shaft sleeve part and the second damping part is a second interference amount, wherein the first interference amount is a difference between a diameter of the first damping part and an inner diameter of the first shaft sleeve part and the second interference amount is a difference between a diameter of the second damping part and an inner diameter of the second shaft sleeve part; and the second interference amount is less than the first interference amount. an interference amount between the first shaft sleeve part and the first damping part is a first interference amount, an interference amount between the second shaft sleeve part and the second damping part is a second interference amount, wherein the first interference amount is a difference between a diameter of the first damping part and an inner diameter of the first shaft sleeve part and the second interference amount is a difference between a diameter of the second damping part and an inner diameter of the second shaft sleeve part; and the second interference amount is less than the first interference amount.
An applicator, comprising: at least a first plunger element (14, 50, 52, 53) comprising a first energy-mass system (26, 54), the first plunger element having a first restrained position and a second extended position, the first plunger element comprising a distal end on which at least one microprojection can be retained; at least a second energy-mass system (16, 18, 56, 58), wherein the first and second energy-mass systems each has a different time constant, and each energy-mass system has a first restrained position and a second extended position; and an actuating member that can convey an external force to at least the first plunger element to release the first plunger element from the first restrained position; wherein the first energy-mass system has a faster time constant than the second energy-mass system such that the first plunger element impacts a subject by multiple, discrete impacts. at least a first plunger element (14, 50, 52, 53) comprising a first energy-mass system (26, 54), the first plunger element having a first restrained position and a second extended position, the first plunger element comprising a distal end on which at least one microprojection can be retained; at least a second energy-mass system (16, 18, 56, 58), wherein the first and second energy-mass systems each has a different time constant, and each energy-mass system has a first restrained position and a second extended position; and an actuating member that can convey an external force to at least the first plunger element to release the first plunger element from the first restrained position; wherein the first energy-mass system has a faster time constant than the second energy-mass system such that the first plunger element impacts a subject by multiple, discrete impacts.
A medicament delivery device comprising: a housing (12, 14) having a distal and an proximal end, said housing being adapted to receive a medicament container with a delivery member or with a connectable delivery member for delivery of a medicament; a drive mechanism configured to be actuated from a pre-tensioned state to a released state; a biased delivery member cover positioned at least partially and axially movable within the housing (12, 14), said biased delivery member cover being interactively connected to the drive mechanism such that when said biased delivery member cover is pressed against a delivery site said drive mechanism is actuated whereby the drive mechanism acts on the medicament container for providing automatic delivery of the medicament; and a signal delay mechanism operably connected to said drive mechanism for generating an audible and/or tactile and/or visual signal indicating that the medicament has been completely delivered, wherein the signal delay mechanism comprises an activator interactively arranged to said drive mechanism, a signal generating element interactively connected to the activator and to an actuator of the drive mechanism such that the drive mechanism exerts a distally directed force on the activator and such that when the medicament delivery has taken place at least to a certain extend the activator is activated by disconnecting from the actuator, moves distally and presses with a distally directed force on the signal generating element, and a delay element operably connected to the housing and to the signal generating element for delaying said generation of an audible and/or tactile and/or visual signal, characterised in that the signal generating element is arranged movable in a longitudinal direction in relation to the actuator, and wherein the delay element is rotatably connected to the housing and is placed in contact with a viscous media capable of regulating the rotational speed of said delay element when the signal generating element acts on the delay element, and wherein that the signal generating element and the delay element are rotationally locked to each other while admitting longitudinal movement between them, and wherein the signal generating element is arranged with threads configured to cooperate with corresponding fixed threads on said actuator such that said signal generating element and said delay element rotate when said activator is activated, and wherein said threads on said signal generating element terminate at a certain release point of said signal generating element whereby said signal generating element is released from the actuator and wherein a certain distance is provided between a distal transversal surface of the signal generating element and an inner transversal surface on the housing at said release point such that said signal generating element is free to be moved in contact with said inner transversal surface, thereby generating said audible and/or tactile and/or visual signal.
A method of forming a security document, comprising: (i) providing a security document substrate, the security document substrate comprising a security device comprising a colour shifting element and a light control layer covering at least a part of the colour shifting element, wherein the light control layer has a surface structure comprising one or more elevations and depressions that modifies the angle of light from the colour shifting element to generate a first optical effect, wherein the surface structure comprises a microprismatic structure, wherein the microprismatic structure comprises a plurality of microprisms and; (ii) selectively modifying a part of the light control layer so as to generate a second optical effect different from the first optical effect. (i) providing a security document substrate, the security document substrate comprising a security device comprising a colour shifting element and a light control layer covering at least a part of the colour shifting element, wherein the light control layer has a surface structure comprising one or more elevations and depressions that modifies the angle of light from the colour shifting element to generate a first optical effect, wherein the surface structure comprises a microprismatic structure, wherein the microprismatic structure comprises a plurality of microprisms and; (ii) selectively modifying a part of the light control layer so as to generate a second optical effect different from the first optical effect.
An acoustic generator, comprising: a film; a frame member disposed on an outer peripheral edge of the film; a plurality of piezoelectric elements (1, 31, 41) disposed on the film and inside the frame member; and a resin layer filled inside the frame member so as to cover the piezoelectric elements (1, 31, 41), wherein a total thickness of one piezoelectric element (1, 31, 41), a part of the film on which the one piezoelectric element (1, 31, 41) is disposed, and a part of the resin layer on which the one piezoelectric element (1, 31, 41) is disposed, is different from a total thickness of another piezoelectric element (1, 31, 41) disposed next to the one piezoelectric element in a plan view, another part of the film on which the another piezoelectric element (1, 31, 41) is disposed, and another part of the resin layer on which the another piezoelectric element (1, 31, 41) is disposed. a film; a frame member disposed on an outer peripheral edge of the film; a plurality of piezoelectric elements (1, 31, 41) disposed on the film and inside the frame member; and a resin layer filled inside the frame member so as to cover the piezoelectric elements (1, 31, 41), wherein a total thickness of one piezoelectric element (1, 31, 41), a part of the film on which the one piezoelectric element (1, 31, 41) is disposed, and a part of the resin layer on which the one piezoelectric element (1, 31, 41) is disposed, is different from a total thickness of another piezoelectric element (1, 31, 41) disposed next to the one piezoelectric element in a plan view, another part of the film on which the another piezoelectric element (1, 31, 41) is disposed, and another part of the resin layer on which the another piezoelectric element (1, 31, 41) is disposed.