mhurhangee/ep-ind-claims huggingface dataset:
A disinfecting appliance comprising a operating unit with means for producing ozone, said operating unit being adapted for air-driven delivery of said ozone to a container adapted to receive the objects to be disinfected submerged in a liquid medium, wherein said disinfecting appliance comprises an assembly of three independent parts which are coupled together in an arrangement that can be disassembled, comprising: a body housing said operating unit, said container, for the inclusion of objects to be disinfected in a liquid medium, and a lid, closing the container, wherein said lid incorporates means for locking said assembly in an integral unit and actuation means for releasing said assembly, wherein the body incorporates, fixed to the front thereof, a first plate, whereas a second plate is fixed to the lid, said plates (4 and 7) determining between them guided fitting formations for coupling of the assembly, while the container is in turn incorporated in guided fitting coupling to the second plate that is attached to the lid, wherein the plates (4, 7) determine a tubular socket coupling, one of the parts of which is incorporated in the first plate is connected with a first conduit coming from the operating unit for circulating air with ozone for disinfection, whereas another part of said tubular socket coupling is attached to a second conduit projecting through the second plate in several discharge outlets, and wherein said discharge outlets are downwardly inclined, some of the discharge outlets incorporating tubular prolongations with elements having elastic radial arms for the arrangement of objects to be disinfected. a body housing said operating unit, said container, for the inclusion of objects to be disinfected in a liquid medium, and a lid, closing the container, wherein said lid incorporates means for locking said assembly in an integral unit and actuation means for releasing said assembly, wherein the body incorporates, fixed to the front thereof, a first plate, whereas a second plate is fixed to the lid, said plates (4 and 7) determining between them guided fitting formations for coupling of the assembly, while the container is in turn incorporated in guided fitting coupling to the second plate that is attached to the lid,
A mobile body having a reflection control layer that reflects light in a wavelength region of sunlight or a wavelength region of infrared radiation formed on a surface of the mobile body, wherein in a wavelength region from 0.75 micrometer to 100 micrometers, a refractive index of the reflection control layer is a value outside a range between a refractive index of a body-side substance under the reflection control layer and a refractive index of air, and a thickness of the reflection control layer is equal to or larger than a value obtained by dividing 187.5 nanometers by a refractive index of the reflection control layer, and equal to or smaller than a value obtained by dividing 275,000 nanometers by a refractive index of the reflection control layer, characterized in that the reflection control layer and the body-side substance directly come in contact with each other, and the reflection control layer and the air directly come in contact with each other. in a wavelength region from 0.75 micrometer to 100 micrometers, a refractive index of the reflection control layer is a value outside a range between a refractive index of a body-side substance under the reflection control layer and a refractive index of air, and a thickness of the reflection control layer is equal to or larger than a value obtained by dividing 187.5 nanometers by a refractive index of the reflection control layer, and equal to or smaller than a value obtained by dividing 275,000 nanometers by a refractive index of the reflection control layer, characterized in that the reflection control layer and the body-side substance directly come in contact with each other, and the reflection control layer and the air directly come in contact with each other.
A method for evaluating formation of a heterodimer of antibody CH3 domains comprising: preparing a yeast cell surface expression vector comprising a first CH3 domain and a yeast extracellular secretion vector comprising a second CH3 domain; transfecting yeasts having different mating types with the prepared vector, respectively, to obtain transfected yeasts; mating the two transfected yeasts with different mating type; and detecting said second CH3 domain cloned in the yeast extracellular secretion vector on a surface of the mated yeast. preparing a yeast cell surface expression vector comprising a first CH3 domain and a yeast extracellular secretion vector comprising a second CH3 domain; transfecting yeasts having different mating types with the prepared vector, respectively, to obtain transfected yeasts; mating the two transfected yeasts with different mating type; and detecting said second CH3 domain cloned in the yeast extracellular secretion vector on a surface of the mated yeast.
A method, comprising: receiving, by a user device and from a first beacon device, a proximity message; activating, by the user device, a scan mode based on the proximity message; receiving, by a zone device, a first message broadcast by a second beacon device, the first message including a first identifier; the first identifier being associated with the second beacon device; receiving, by the user device and from the second beacon device, the first message based on the scan mode; determining, by the user device, the first identifier based on the first message; activating, by the user device, a broadcast mode to broadcast a second response message, wherein the user device broadcasts the second response message for a threshold amount of time and/or a threshold quantity of response messages; and providing, by the user device and to the zone device, the second message including a second identifier, the user device hence providing the second message to the zone device without establishing a communication link with the zone device, wherein the second identifier is associated with the user device and the first identifier, determining by the zone device an identifier of the user device based on the second identifier and the first identifier, determining, by the zone device, an event associated with the identifier of the user device based on the first identifier; and providing, by the zone device, to a server device, information that identifies the identifier of the user device and the event to permit the server device to identify a displacement trajectory associated with the user device. receiving, by a user device and from a first beacon device, a proximity message; activating, by the user device, a scan mode based on the proximity message; receiving, by a zone device, a first message broadcast by a second beacon device, the first message including a first identifier; the first identifier being associated with the second beacon device; receiving, by the user device and from the second beacon device, the first message based on the scan mode; determining, by the user device, the first identifier based on the first message; activating, by the user device, a broadcast mode to broadcast a second response message, wherein the user device broadcasts the second response message for a threshold amount of time and/or a threshold quantity of response messages; and providing, by the user device and to the zone device, the second message including a second identifier, the user device hence providing the second message to the zone device without establishing a communication link with the zone device, wherein the second identifier is associated with the user device and the first identifier, determining by the zone device an identifier of the user device based on the second identifier and the first identifier, determining, by the zone device, an event associated with the identifier of the user device based on the first identifier; and providing, by the zone device, to a server device, information that identifies the identifier of the user device and the event to permit the server device to identify a displacement trajectory associated with the user device.
A process for producing a polysilicon package, comprising steps of: holding a bag formed from a linear low-density polyethylene-based resin film having an average thickness of 300 μm or less in an upright state with a filling opening thereof facing up and a bottom of the bag in contact with the ground when crushed polysilicon are to be filled; and filling crushed polysilicon from the filling opening to ensure that a maximum expansion of the bag does not become 5 % or more, wherein the maximum expansion % = L 2 − L 1 / L 1 × 100 wherein L1 denotes the inner peripheral length of the cavity part of the bag when it is not filled with crushed polysilicon, and L2 denotes the inner peripheral length of the bag at a part showing the maximum expansion while the bag is filled with crushed polysilicon and the filling opening is closed by heat-sealing to form a heat-sealed bonded part, wherein the expansion of the bag to be filled with the crushed polysilicon is suppressed by inserting the bag into a frame to fill the crushed polysilicon. holding a bag formed from a linear low-density polyethylene-based resin film having an average thickness of 300 μm or less in an upright state with a filling opening thereof facing up and a bottom of the bag in contact with the ground when crushed polysilicon are to be filled; and filling crushed polysilicon from the filling opening to ensure that a maximum expansion of the bag does not become 5 % or more, wherein the maximum expansion % = L 2 − L 1 / L 1 × 100 wherein L1 denotes the inner peripheral length of the cavity part of the bag when it is not filled with crushed polysilicon, and L2 denotes the inner peripheral length of the bag at a part showing the maximum expansion while the bag is filled with crushed polysilicon and the filling opening is closed by heat-sealing to form a heat-sealed bonded part, wherein the expansion of the bag to be filled with the crushed polysilicon is suppressed by inserting the bag into a frame to fill the crushed polysilicon.
A camera arrangement (20; 40; 50; 60), comprising: a camera (25; 42; 52; 62) positioned adjacent a first surface (26; 46; 55; 66) of a transparent pane (23; 43; 53; 63), and a field of view modifying device (21; 41; 51; 61), wherein the field of view modifying device is positioned on a second surface of the transparent pane that opposes the first surface or is integral (41; 51; 61) with the transparent pane (43; 53; 63), characterized in that the field of view modifying device (21; 41; 51; 61) is a lens. a camera (25; 42; 52; 62) positioned adjacent a first surface (26; 46; 55; 66) of a transparent pane (23; 43; 53; 63), and a field of view modifying device (21; 41; 51; 61), wherein the field of view modifying device is positioned on a second surface of the transparent pane that opposes the first surface or is integral (41; 51; 61) with the transparent pane (43; 53; 63), characterized in that the field of view modifying device (21; 41; 51; 61) is a lens.
A method of portioning pasty masses for food production by means of a filling machine and a filling flow divider, wherein a pasty mass is fed by the filling machine into the filling flow divider, where it is separated into a plurality of mass flows and discharged in portions in the discharge direction wherein in the filling flow divider the separated mass flows pass through respective dosing elements (3a, 3b, 3c, 3d) for adjusting the volume flow characterized in that at the end of a portion (V p) the mass flow is sucked back in a direction opposite to the discharge direction respectively and in that the respective dosing element (3a, 3b, 3c, 3d) is running backwards at the end of the portion. at the end of a portion (V p) the mass flow is sucked back in a direction opposite to the discharge direction respectively and in that the respective dosing element (3a, 3b, 3c, 3d) is running backwards at the end of the portion.
Method for manufacturing a metal part comprising internal reinforcements formed of ceramic fibres, wherein: - at least one housing for an insert is machined on a metal body with an upper surface, - there is at least one insert formed of ceramic fibres in a metal matrix in the housing, - the insert is covered by a cover, - the interstitial space around the insert is placed under vacuum and the said space is hermetically sealed, - the assembly of the metal body with cover is treated with hot isostatic pressing, and - the said treated assembly is machined to obtain the said part, characterised by the fact that the insert is rectangular, and the housing of the insert on the metal body forms a corresponding rectangular groove, the cover is cooled before it is placed on the housing, the cover being formed in such a way as to allow it to be placed on the insert with play in the housing after having been shrunk by cooling and to exert an interference fit by dilation in the groove in such a way as to seal the said space. - at least one housing for an insert is machined on a metal body with an upper surface, - there is at least one insert formed of ceramic fibres in a metal matrix in the housing, - the insert is covered by a cover, - the interstitial space around the insert is placed under vacuum and the said space is hermetically sealed, - the assembly of the metal body with cover is treated with hot isostatic pressing, and - the said treated assembly is machined to obtain the said part, characterised by the fact that the insert is rectangular, and the housing of the insert on the metal body forms a corresponding rectangular groove, the cover is cooled before it is placed on the housing, the cover being formed in such a way as to allow it to be placed on the insert with play in the housing after having been shrunk by cooling and to exert an interference fit by dilation in the groove in such a way as to seal the said space.
A depositing arrangement for evaporation of a material comprising an alkali metal or alkaline earth metal and for deposition of the material on a substrate, comprising: a first chamber configured for liquefying the material; a valve being in fluid communication with the first chamber, and being downstream of the first chamber, wherein the valve is configured for control of the flow rate of the liquefied material through the valve; wherein the valve is connected to a vapor distribution showerhead via a conduit; the vapor distribution showerhead, comprising: an enclosure; and a plurality of nozzles for directing the vaporized material from within the enclosure towards the substrate, wherein the vapor distribution showerhead is configured to maintain a higher pressure within the vapor distribution showerhead relative to a pressure in a region between the vapor distribution showerhead and the substrate; and the evaporation zone disposed within the vapor distribution showerhead and being in fluid communication with the valve, and being downstream of the valve, wherein the evaporation zone is configured for vaporizing the liquefied material; wherein the evaporation zone is provided by a surface with a surface contact area of 1 cm 2 to 10 cm 2. a first chamber configured for liquefying the material; a valve being in fluid communication with the first chamber, and being downstream of the first chamber, wherein the valve is configured for control of the flow rate of the liquefied material through the valve; wherein the valve is connected to a vapor distribution showerhead via a conduit; the vapor distribution showerhead, comprising: an enclosure; and a plurality of nozzles for directing the vaporized material from within the enclosure towards the substrate, wherein the vapor distribution showerhead is configured to maintain a higher pressure within the vapor distribution showerhead relative to a pressure in a region between the vapor distribution showerhead and the substrate; and an enclosure; and a plurality of nozzles for directing the vaporized material from within the enclosure towards the substrate, wherein the vapor distribution showerhead is configured to maintain a higher pressure within the vapor distribution showerhead relative to a pressure in a region between the vapor distribution showerhead and the substrate; and the evaporation zone disposed within the vapor distribution showerhead and being in fluid communication with the valve, and being downstream of the valve, wherein the evaporation zone is configured for vaporizing the liquefied material; wherein the evaporation zone is provided by a surface with a surface contact area of 1 cm 2 to 10 cm 2.
Floor sill system for a displaceable sash as a sliding sash or displaceable life-and-slide sash of a window or of a door, comprising a receiving groove of a floor sill profile for receiving a guide web for a running rail which has the running rollers of sash-side running carriages and which is arranged opposite the sliding sash on the upper side of the floor sill profile, wherein the guide web can be engaged over its entire length into the receiving groove with a form or force fit, and at least one adapter profile is provided, which by means of a connecting means equipped convexly on its lower side can engage into the receiving groove of the floor sill profile with a form or force fit, and the adapter profile has on its upper side a receiving groove which is formed congruently to the receiving groove of the floor sill profile, wherein the receiving groove of the adapter profile receives the guide web on its upper side, and, together with the upper side, forms a surface-flush barrier-free contact, and a visible bearing and lateral surface (21, 22) is formed on the respective sides of the adapter profile, and against which there can be laid, to the inner side of the room an inner floor surface and, to the outer side of the room, selectively different expansion profiles (26, 27) for the transition to the outer floor surface, for barrier-free transition, characterized in that the side surface of the adapter profile is arranged offset, at least in the passage region to the outer side of the room of the sliding sash of the window or the door, on the upper side, with respect to the vertical plane of the sash frame of the sliding sash in the direction of the receiving groove, and distances itself in the direction of the lower side of the adapter profile and of the floor sill profile with a leg having an acute angle to the outer side of the room, starting from the sliding sash, wherein a gap is formed on the outer side of the room between the sash frame and the lateral surface, into which a horizontal web of the expansion profile is inserted and covers the gap in a virtually gap-free manner while maintaining a drainage joint, and wherein the web and the adapter profile are positioned in an overlapping manner by the sash frame of the sliding sash.
A high oxidation-resistant alloy having a nominal composition consisting of: Co 9.00-9.50 wt% W 9.30-9.70 wt% Cr 8.00-8.70 wt% Al 4.00-15.50 wt% Ti 0.60-0.90 wt% Ta 2.80-3.30 wt% Mo 0.40-0.60 wt% Hf up to1.20 wt% Mn up to 0.05 wt% Si up to 0.02 wt% C up to 0.065 wt% Re 0.00-4.00 wt% Mg, B, Zr, Fe, O, N, S, or a mixture thereof up to 0.287 wt% Ni balance based on the alloy weight.
Arrangement for inspecting containers, wherein the arrangement comprises: - means for receiving image data of a container taken by one or more cameras, the image data comprising image data of the exterior of the container and of the interior of the container; - a storage unit comprising a 3D model of the container, - means for verifying a location and/or position data of the image data in relation to the 3D model of the container, and - means for analyzing the received image data such that when the location and/or position data of the received image data is known, the corresponding location in the 3D model of the container is compared with it, and - means for detecting points of damage, such that when a difference is found between the image data of the exterior wall and the 3D model of the container, the corresponding location in the interior wall is reviewed as well in order to find out if the damage is found on one side of the wall only or on both sides of the wall, the arrangement being configured to generate a 3D object comprising the received image data, the 3D model of the container and the detected point of damage, such that the arrangement is configured to supplement the 3D model of the container with the received image data and the detected point of damage, so that in the generated 3D object, if the damage is found on both sides of the wall, the damage (301, 302) is visible on the outside of the container and on the corresponding location on the inside of the container; and the arrangement comprises means for receiving a damage measurement taken by a vibration measurement device, when the container is subjected to measurable vibration, and for including said damage measurement in the 3D object of the container. - means for receiving image data of a container taken by one or more cameras, the image data comprising image data of the exterior of the container and of the interior of the container; - a storage unit comprising a 3D model of the container, - means for verifying a location and/or position data of the image data in relation to the 3D model of the container, and - means for analyzing the received image data such that when the location and/or position data of the received image data is known, the corresponding location in the 3D model of the container is compared with it, and - means for detecting points of damage, such that when a difference is found between the image data of the exterior wall and the 3D model of the container, the corresponding location in the interior wall is reviewed as well in order to find out if the damage is found on one side of the wall only or on both sides of the wall,
A transmission, comprising: a main transmission assembly having a main shaft and a main transmission clutch (342, 344), the main shaft coupled to a countershaft via the main transmission clutch; a planetary gear assembly having a center shaft and providing_output from the transmission, the planetary gear assembly further including an annulus gear (360; 404), a sun gear (356; 406), and a planet gear; a spline joint (374; 500) that couples the main shaft to the center shaft; a first bearing positioned at an axial location of the spline joint (374; 500) that supports both the main shaft and the center shaft at a first end; and a second bearing that supports the center shaft at a second end of the center shaft opposite the first end, the second bearing supported by an outer shaft that is coupled to the planet gear and provides output to an output shaft of the transmission; wherein the main shaft is a radially floating shaft positioned within a bore of the spline joint (374; 500). a main transmission assembly having a main shaft and a main transmission clutch (342, 344), the main shaft coupled to a countershaft via the main transmission clutch; a planetary gear assembly having a center shaft and providing_output from the transmission, the planetary gear assembly further including an annulus gear (360; 404), a sun gear (356; 406), and a planet gear; a spline joint (374; 500) that couples the main shaft to the center shaft; a first bearing positioned at an axial location of the spline joint (374; 500) that supports both the main shaft and the center shaft at a first end; and a second bearing that supports the center shaft at a second end of the center shaft opposite the first end, the second bearing supported by an outer shaft that is coupled to the planet gear and provides output to an output shaft of the transmission; wherein the main shaft is a radially floating shaft positioned within a bore of the spline joint (374; 500).