mhurhangee/ep-ind-claims huggingface dataset:
A vacuum insulation panel manufacturing device in which a vacuum insulation panel is manufactured by wrapping an insulating core member with a packaging member (20, 30) in which an evacuation port is provided, applying a vacuum to evacuate inside of the packaging member (20, 30) from the evacuation port, and sealing the evacuation port with a sealing member, the vacuum insulation panel manufacturing device comprising: a chamber with an opened bottom; a chamber evacuation hole provided in the chamber; a window to which a quartz glass is attached, said window being provided in an upper portion of the chamber; a holding unit which can hold the sealing member; a lifting mechanism which raises/lowers the holding unit; a laser welding unit provided outside of the chamber; characterized in that: it further comprises a frame member which holds and raises/lowers the chamber; the window is provided in a middle of the upper portion of the chamber; the holding unit is configured to hold an outer periphery of the sealing member, includes a hole for allowing laser light to pass through, and is supported by way of three support rods attached along a circumference of the holding unit, and wherein an upper end of the support rods is fixed to a lifting plate of the lifting mechanism, passing through the upper portion of the chamber, around the quartz glass. a chamber with an opened bottom; a chamber evacuation hole provided in the chamber; a window to which a quartz glass is attached, said window being provided in an upper portion of the chamber; a holding unit which can hold the sealing member; a lifting mechanism which raises/lowers the holding unit; a laser welding unit provided outside of the chamber; characterized in that: it further comprises a frame member which holds and raises/lowers the chamber; the window is provided in a middle of the upper portion of the chamber; the holding unit is configured to hold an outer periphery of the sealing member, includes a hole for allowing laser light to pass through, and is supported by way of three support rods attached along a circumference of the holding unit, and wherein an upper end of the support rods is fixed to a lifting plate of the lifting mechanism, passing through the upper portion of the chamber, around the quartz glass. it further comprises a frame member which holds and raises/lowers the chamber; the window is provided in a middle of the upper portion of the chamber; the holding unit is configured to hold an outer periphery of the sealing member, includes a hole for allowing laser light to pass through, and is supported by way of three support rods attached along a circumference of the holding unit, and wherein an upper end of the support rods is fixed to a lifting plate of the lifting mechanism, passing through the upper portion of the chamber, around the quartz glass.
A composition for cleaning integrated circuit substrates, the composition comprising: a. water; b. an oxidizer comprising an ammonium salt of an oxidizing species; c. a corrosion inhibitor comprising a primary alkylamine having the general formula: R'NH 2, wherein R' is an alkyl group containing up to about 150 carbon atoms and will more often be an aliphatic alkyl group containing from about 4 to about 30 carbon atoms; d. optionally, a water-miscible organic solvent; e. optionally, an organic acid; f. optionally, a buffer speicies; g. optionally, a fluoride ion source; and h. optionally, a metal chelating agent, wherein the composition is free of hydrogen peroxide. a. water; b. an oxidizer comprising an ammonium salt of an oxidizing species; c. a corrosion inhibitor comprising a primary alkylamine having the general formula: R'NH 2, wherein R' is an alkyl group containing up to about 150 carbon atoms and will more often be an aliphatic alkyl group containing from about 4 to about 30 carbon atoms; d. optionally, a water-miscible organic solvent; e. optionally, an organic acid; f. optionally, a buffer speicies; g. optionally, a fluoride ion source; and h. optionally, a metal chelating agent, wherein the composition is free of hydrogen peroxide.
A rotary kiln comprising: - a rotary combustion chamber and - a rotary drive device for the combustion chamber, the drive device comprising a drive ring gear torsionally fixed to the combustion chamber, characterised in that at least a portion of the drive ring gear is fabricated out of cast iron, in that the cast iron is a spheroidal graphite cast iron and in that the cast iron has a Brinell Hardness which is higher than 250HB. - a rotary combustion chamber and - a rotary drive device for the combustion chamber,
A chamber (110, 203, 303, 403, 500, 1300, 2210) that retains a molded part for microwave treatment, the chamber (110, 203, 303, 403, 500, 1300, 2210) comprising: a plurality of walls that define an interior of the chamber (110, 203, 303, 403, 500, 1300, 2210) within the plurality of walls and an exterior of the chamber (110, 203, 303, 403, 500, 1300, 2210) outside the plurality of walls; at least a first port (299, 399, 401, 499, 610, 620, 702, 710, 720, 730, 740, 750, 760, 770, 780, 1099, 1110, 1120, 1310, 1311, 1399) permitting microwave energy to enter into the interior of the chamber (110, 203, 303, 403, 500, 1300, 2210) from the exterior of the chamber (110, 203, 303, 403, 500, 1300, 2210); multiple dielectric materials (120, 520, 530, 2220, 2240, 2242, 2244) having different dielectric constants contained within the chamber (110, 203, 303, 403, 500, 1300, 2210), the dielectric materials (120, 520, 530, 2220, 2240, 2242, 2244) defining a cavity configured to receive and retain the molded part for microwave treatment; and characterized by the chamber further comprising at least a first conducting deflector (430, 1201, 1320, 1380, 1381) within the dielectric materials (120, 520, 530, 2220, 2240, 2242, 2244), and by the at least one conducting deflector (430, 1201, 1320, 1380, 1381) intersecting a line between the at least a first port (299, 399, 401, 499, 610, 620, 702, 710, 720, 730, 740, 750, 760, 770, 780, 1099, 1110, 1120, 1310, 1311, 1399) and the cavity configured to receive and retain the molded part for microwave treatment. a plurality of walls that define an interior of the chamber (110, 203, 303, 403, 500, 1300, 2210) within the plurality of walls and an exterior of the chamber (110, 203, 303, 403, 500, 1300, 2210) outside the plurality of walls; at least a first port (299, 399, 401, 499, 610, 620, 702, 710, 720, 730, 740, 750, 760, 770, 780, 1099, 1110, 1120, 1310, 1311, 1399) permitting microwave energy to enter into the interior of the chamber (110, 203, 303, 403, 500, 1300, 2210) from the exterior of the chamber (110, 203, 303, 403, 500, 1300, 2210); multiple dielectric materials (120, 520, 530, 2220, 2240, 2242, 2244) having different dielectric constants contained within the chamber (110, 203, 303, 403, 500, 1300, 2210), the dielectric materials (120, 520, 530, 2220, 2240, 2242, 2244) defining a cavity configured to receive and retain the molded part for microwave treatment; and characterized by the chamber further comprising at least a first conducting deflector (430, 1201, 1320, 1380, 1381) within the dielectric materials (120, 520, 530, 2220, 2240, 2242, 2244), and by the at least one conducting deflector (430, 1201, 1320, 1380, 1381) intersecting a line between the at least a first port (299, 399, 401, 499, 610, 620, 702, 710, 720, 730, 740, 750, 760, 770, 780, 1099, 1110, 1120, 1310, 1311, 1399) and the cavity configured to receive and retain the molded part for microwave treatment.
A compound of the formula n-Y, wherein Y is dual GLP-1/Glucagon receptor agonist consisting of an oxyntomodulin peptide having the amino acid sequence of SEQ ID NO: 1 and bearing a free amino or hydroxyl group, and wherein X is a radical of formula (i) wherein R 1 is a polyethylene glycol moiety; R 2 is either hydrogen or is -SO 3 H at position 2 of the fluorene ring; R 3 and R 4 are each hydrogen; A is -OCO-, wherein the radical of formula (i) is linked to an amino or hydroxyl group of the drug Y; and n is an integer of at least one. R 1 is a polyethylene glycol moiety; R 2 is either hydrogen or is -SO 3 H at position 2 of the fluorene ring; R 3 and R 4 are each hydrogen; A is -OCO-, wherein the radical of formula (i) is linked to an amino or hydroxyl group of the drug Y; and n is an integer of at least one.
A coverage level update processing method applied to a base station, comprising: receiving a feedback message from a terminal, wherein, the feedback message relates to a current cell of the terminal, and is used to determine whether a coverage level of the terminal changes; determining whether a coverage level of the terminal changes according to the feedback message; and initiating an intra-cell handover process on the terminal when the coverage level of the terminal changes, and updating the coverage level of the terminal; wherein, initiating an intra-cell handover process on the terminal when the coverage level of the terminal changes and updating the coverage level of the terminal, comprises reconfiguring physical resources to the terminal according to the changed coverage level, sending an instruction for intra-cell handover to the terminal to trigger the terminal to execute the intra-cell handover process according to the reconfigured physical resources in the instruction to randomly re-access the current cell. receiving a feedback message from a terminal, wherein, the feedback message relates to a current cell of the terminal, and is used to determine whether a coverage level of the terminal changes; determining whether a coverage level of the terminal changes according to the feedback message; and initiating an intra-cell handover process on the terminal when the coverage level of the terminal changes, and updating the coverage level of the terminal; wherein, initiating an intra-cell handover process on the terminal when the coverage level of the terminal changes and updating the coverage level of the terminal, comprises reconfiguring physical resources to the terminal according to the changed coverage level, sending an instruction for intra-cell handover to the terminal to trigger the terminal to execute the intra-cell handover process according to the reconfigured physical resources in the instruction to randomly re-access the current cell.
A surge protection device with a high breaking capacity, comprising a housing with at least two lead-out electrodes (10a, 10b), a voltage limiting device and a thermal tripping mechanism, wherein the voltage limiting device and the thermal tripping mechanism are installed in the housing, characterized in that the voltage limiting device comprises a voltage limiter, a first electrode and a second electrode, wherein the voltage limiter, the first electrode and the second electrode are positioned and installed in an insulating cover; the thermal tripping mechanism comprises a fixed assembly, a movable assembly and a thermal trigger device, wherein the fixed assembly and the movable assembly form a plurality of displacement switches arranged in series; the thermal trigger device is disposed in linkage with the movable assembly, and the thermal trigger device comprises a metal trigger sheet, a fusible alloy and an energy storage member; a first end of the metal trigger sheet is fixed on the movable assembly, and a second end of the metal trigger sheet is fixed on the second electrode through welding by the fusible alloy, wherein a displacement of the movable assembly relative to the fixed assembly is limited, and the energy storage member accumulates potential energy to displace the movable assembly relative to the fixed assembly; and the first electrode is electrically connected to one lead-out electrode of the at least two lead-out electrodes (10a, 10b), and both ends of the plurality of displacement switches arranged in series are electrically connected to the second electrode and another lead-out electrode of the at least two lead-out electrodes (10a, 10b), respectively. the voltage limiting device comprises a voltage limiter, a first electrode and a second electrode, wherein the voltage limiter, the first electrode and the second electrode are positioned and installed in an insulating cover; the thermal tripping mechanism comprises a fixed assembly, a movable assembly and a thermal trigger device, wherein the fixed assembly and the movable assembly form a plurality of displacement switches arranged in series; the thermal trigger device is disposed in linkage with the movable assembly, and the thermal trigger device comprises a metal trigger sheet, a fusible alloy and an energy storage member; a first end of the metal trigger sheet is fixed on the movable assembly, and a second end of the metal trigger sheet is fixed on the second electrode through welding by the fusible alloy, wherein a displacement of the movable assembly relative to the fixed assembly is limited, and the energy storage member accumulates potential energy to displace the movable assembly relative to the fixed assembly; and the first electrode is electrically connected to one lead-out electrode of the at least two lead-out electrodes (10a, 10b), and both ends of the plurality of displacement switches arranged in series are electrically connected to the second electrode and another lead-out electrode of the at least two lead-out electrodes (10a, 10b), respectively.
A zirconia sintered body having a cubic fluorite structure in crystal phase, an average grain size of 5 μm or less, and an in-line transmission of 50% or more at a sample thickness of 1 mm for visible light at a measured wavelength of 600 nm.
A light source device, comprising: - a light-emitting part; - a light guide having in the center a columnar part whose central axis direction is a lengthwise direction, that is adapted to guide light input into an end face from the light-emitting part in a lengthwise direction of the columnar part, and to output light from a side face of the columnar part; - a light guide holder that covers an end of the light guide except for at least part of the end face; and characterized in that the light source device comprises a support part, having a through-hole that penetrates from one face to another face formed therein, is configured to hold an end of the light guide holder on a side of a first opening on the one face of the through-hole so as to allow sliding the light guide holder in the lengthwise direction, or to hold the end of the light guide holder that is configured to stretch in the lengthwise direction inside or above the first opening; and the support part is further configured to support an optical filter between the first opening and a second opening while maintaining a designated spacing with the light-emitting part; wherein the light from the light-emitting part is input into the light guide via the second opening on the other face of the through-hole, or the light-emitting part is disposed in the second opening. - a light-emitting part; - a light guide having in the center a columnar part whose central axis direction is a lengthwise direction, that is adapted to guide light input into an end face from the light-emitting part in a lengthwise direction of the columnar part, and to output light from a side face of the columnar part; - a light guide holder that covers an end of the light guide except for at least part of the end face; and characterized in that the light source device comprises a support part, having a through-hole that penetrates from one face to another face formed therein, is configured to hold an end of the light guide holder on a side of a first opening on the one face of the through-hole so as to allow sliding the light guide holder in the lengthwise direction, or to hold the end of the light guide holder that is configured to stretch in the lengthwise direction inside or above the first opening; and the support part is further configured to support an optical filter between the first opening and a second opening while maintaining a designated spacing with the light-emitting part; wherein the light from the light-emitting part is input into the light guide via the second opening on the other face of the through-hole, or the light-emitting part is disposed in the second opening.
Pump arrangement for a motor vehicle, having: - a high-pressure pump for delivering a fluid with a fluid inlet and a fluid outlet and a pressure chamber, which is arranged hydraulically between the fluid inlet and the fluid outlet, - a first pressure limiting valve, which is coupled on the inlet side to the fluid outlet, - a second pressure limiting valve, wherein - the two pressure limiting valves (105, 106) are connected hydraulically in parallel, - the two pressure limiting valves (105, 106) each have an opening pressure, wherein - the value of the opening pressure of the first pressure limiting valve is greater than the value of the opening pressure of the second pressure limiting valve, and - the value of the opening pressure of the second pressure limiting valve is predetermined depending on an injector, which can be coupled hydraulically to the pump arrangement, characterized in that the second pressure limiting valve is coupled hydraulically on the outlet side to the pressure chamber. - a high-pressure pump for delivering a fluid with a fluid inlet and a fluid outlet and a pressure chamber, which is arranged hydraulically between the fluid inlet and the fluid outlet, - a first pressure limiting valve, which is coupled on the inlet side to the fluid outlet, - a second pressure limiting valve, wherein - the two pressure limiting valves (105, 106) are connected hydraulically in parallel, - the two pressure limiting valves (105, 106) each have an opening pressure, wherein - the value of the opening pressure of the first pressure limiting valve is greater than the value of the opening pressure of the second pressure limiting valve, and - the value of the opening pressure of the second pressure limiting valve is predetermined depending on an injector, which can be coupled hydraulically to the pump arrangement,
Method for shrinking a heat shrink film placed around a stack of items, particularly one which is on a pallet, comprising a base surface, a cover surface, and a surrounding side surface which consists of four side surface part regions, with at least one heating device for shrinking the heat shrink film by heating, wherein the heat shrink film covers the side surface of the stack of items at least in its upper region, and preferably the entire height of the side surface, and the heat shrink film projects with at least one heat shrink film part region over the upper edge of the stack of items so as to form the upper shrink region on the upper side, wherein firstly the heat shrink film is shrunk in the region of a first side surface part region of the four side surface part regions of the stack of items, wherein the shrinking direction is from bottom to top, then, with a change in the shrinking direction through about 90°, the hot shrink film part region of the hot shrink film projecting over the upper edge of the stack of items on the upper side is shrunk, starting from the upper edge of the first side surface part region along the cover surface, wherein the side surface part regions adjacent to the first side surface part region are not heated at all, or in any event only in their edge regions which are adjacent to the first side surface part region, and, if appropriate, are shrunk by some amount, and, in a further step, either by changing the shrinking direction by a further amount of some 90°, the hot shrink film is shrunk from top to bottom in the region of the side surface part region of the stack of items located opposite the first side surface part region, or by changing the shrinking direction by a further amount of some 90°, the hot shrink film in the region of the side surface part region of the stack of items which is opposite the first side surface region is pre-heated from top to bottom, and then shrunk in the opposite direction, from bottom to top. either by changing the shrinking direction by a further amount of some 90°, the hot shrink film is shrunk from top to bottom in the region of the side surface part region of the stack of items located opposite the first side surface part region, or by changing the shrinking direction by a further amount of some 90°, the hot shrink film in the region of the side surface part region of the stack of items which is opposite the first side surface region is pre-heated from top to bottom, and then shrunk in the opposite direction, from bottom to top.
An aircraft landing gear stay, wherein the stay comprises: a first end and a second end, wherein one of the first and second ends is configured for attachment to a main leg of the landing gear and the other of the first and second ends is configured for attachment to aircraft structure; a first set of one or more struts including at least one strut which has a first axis that extends in a direction from the first end towards the second end, characterized in that the stay comprises: a second set of two or more struts each having a respective axis, extending parallel to and spaced apart from the first axis, wherein the stay is moveable between a contracted configuration and an extended configuration, the struts of the first set and of the second set moving parallel to the first axis as the stay moves between the contracted and extended configurations, wherein contact is maintained between each of the struts of the second set and at least one strut of the first set for the entire length of travel of the stay between its contracted configuration and its extended configuration, the movement of the struts of the second set being guided and supported by a strut of the first set. a first end and a second end, wherein one of the first and second ends is configured for attachment to a main leg of the landing gear and the other of the first and second ends is configured for attachment to aircraft structure; a first set of one or more struts including at least one strut which has a first axis that extends in a direction from the first end towards the second end, characterized in that the stay comprises: a second set of two or more struts each having a respective axis, extending parallel to and spaced apart from the first axis, wherein the stay is moveable between a contracted configuration and an extended configuration, the struts of the first set and of the second set moving parallel to the first axis as the stay moves between the contracted and extended configurations, wherein contact is maintained between each of the struts of the second set and at least one strut of the first set for the entire length of travel of the stay between its contracted configuration and its extended configuration, the movement of the struts of the second set being guided and supported by a strut of the first set. a second set of two or more struts each having a respective axis, extending parallel to and spaced apart from the first axis, wherein the stay is moveable between a contracted configuration and an extended configuration, the struts of the first set and of the second set moving parallel to the first axis as the stay moves between the contracted and extended configurations, wherein contact is maintained between each of the struts of the second set and at least one strut of the first set for the entire length of travel of the stay between its contracted configuration and its extended configuration, the movement of the struts of the second set being guided and supported by a strut of the first set.