mhurhangee/ep-ind-claims huggingface dataset:
A braking device comprising: a master cylinder that generates a first brake hydraulic pressure by operation of a brake operation unit; and a slave cylinder of tandem type that actuates a rod by an electric motor which is driven in response to operation amount of the brake operation unit and displaces two pistons (88a, 88b) to generate a second brake hydraulic pressure, wherein a piston on a side of the rod, of the two pistons of the slave cylinder, is a second piston, and a piston on a side opposite to the side of the rod and in a displacement direction is a first piston, and the pistons (88a, 88b) are arranged so that an inner periphery of an opening section provided in a backward side in the displacement direction of the first piston overlaps with part of one side along an axial direction of the second piston, characterized in that an end surface of one end portion of the second piston which abuts against the first piston is formed to have a partial spherical surface formed with a radius having a center point as the center of tilt of piston-tumbling. a master cylinder that generates a first brake hydraulic pressure by operation of a brake operation unit; and a slave cylinder of tandem type that actuates a rod by an electric motor which is driven in response to operation amount of the brake operation unit and displaces two pistons (88a, 88b) to generate a second brake hydraulic pressure, wherein a piston on a side of the rod, of the two pistons of the slave cylinder, is a second piston, and a piston on a side opposite to the side of the rod and in a displacement direction is a first piston, and the pistons (88a, 88b) are arranged so that an inner periphery of an opening section provided in a backward side in the displacement direction of the first piston overlaps with part of one side along an axial direction of the second piston, characterized in that an end surface of one end portion of the second piston which abuts against the first piston is formed to have a partial spherical surface formed with a radius having a center point as the center of tilt of piston-tumbling.
Towel-drying radiator comprising at least one tubular towel-holding bar (2, 2') fixed horizontally onto at least one upright (3, 3'), an electrically insulated electrical heating cable being arranged in said bar, - said cable is housed inside the body (5a, 5b, 5'a, 5'b) of an element, - the heating assembly formed by said element and said cable is inserted into said bar (2, 2') in such a way as to ensure a continuous surface contact between the inner wall of said bar and at least a part of the outer surface of the body (5a, 5b, 5'a, 5'b) of said element, over the entire length of said body, characterized in that: said element is a heat sink, produced in a heat-conducting material, the body (5a, 5b, 5'a, 5'b) of the heat sink is configured such that all of the heating outer surface of said cable is in contact with said body. - said cable is housed inside the body (5a, 5b, 5'a, 5'b) of an element, - the heating assembly formed by said element and said cable is inserted into said bar (2, 2') in such a way as to ensure a continuous surface contact between the inner wall of said bar and at least a part of the outer surface of the body (5a, 5b, 5'a, 5'b) of said element, over the entire length of said body, said element is a heat sink, produced in a heat-conducting material, the body (5a, 5b, 5'a, 5'b) of the heat sink is configured such that all of the heating outer surface of said cable is in contact with said body.
A filter element comprising: (a) a tubular section of filter media; and (b) a first end cap secured to the filter media; (i) the first end cap having a seal arrangement along an inner radial surface; (ii) the seal arrangement including a seal member having an inwardly radially directed seal surface and a thickness that varies along the inwardly radially directed seal surface, the thickness of the seal member surface varying in a radial direction along the inwardly radially directed seal surface; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions the inwardly radially directed seal surface positioned to form a seal against a tube sheet seal member; and (c) a second end cap secured to the filter media opposite of the first end cap; (i) the second end cap being closed except for a seal-receiving opening in the center of the second end cap; the seal-receiving opening having an outer diameter less than 20% of an outer diameter of the second end cap. (a) a tubular section of filter media; and (b) a first end cap secured to the filter media; (i) the first end cap having a seal arrangement along an inner radial surface; (ii) the seal arrangement including a seal member having an inwardly radially directed seal surface and a thickness that varies along the inwardly radially directed seal surface, the thickness of the seal member surface varying in a radial direction along the inwardly radially directed seal surface; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions the inwardly radially directed seal surface positioned to form a seal against a tube sheet seal member; and (i) the first end cap having a seal arrangement along an inner radial surface; (ii) the seal arrangement including a seal member having an inwardly radially directed seal surface and a thickness that varies along the inwardly radially directed seal surface, the thickness of the seal member surface varying in a radial direction along the inwardly radially directed seal surface; wherein the radially directed seal surface comprises a plurality of outwardly projecting and axially extending portions and a plurality of inwardly projecting and axially extending portions the inwardly radially directed seal surface positioned to form a seal against a tube sheet seal member; and (c) a second end cap secured to the filter media opposite of the first end cap; (i) the second end cap being closed except for a seal-receiving opening in the center of the second end cap; the seal-receiving opening having an outer diameter less than 20% of an outer diameter of the second end cap. (i) the second end cap being closed except for a seal-receiving opening in the center of the second end cap; the seal-receiving opening having an outer diameter less than 20% of an outer diameter of the second end cap.
A fluid container configured to store carbon dioxide, comprising: a bottle having an axial end surface comprising a mouth of a port; a valve configured to engage with a filling or dispensing head; and a lip having a bottom surface that: interfaces to the axial end surface of the bottle; extends radially from the axial end surface of the bottle; and is configured to engage with a lifting mechanism to bring the valve into engagement with the filling or dispensing head, wherein the lip is arranged longitudinally between a seat of the valve and the axial end surface of the bottle. a bottle having an axial end surface comprising a mouth of a port; a valve configured to engage with a filling or dispensing head; and a lip having a bottom surface that: interfaces to the axial end surface of the bottle; extends radially from the axial end surface of the bottle; and is configured to engage with a lifting mechanism to bring the valve into engagement with the filling or dispensing head, wherein the lip is arranged longitudinally between a seat of the valve and the axial end surface of the bottle. interfaces to the axial end surface of the bottle; extends radially from the axial end surface of the bottle; and is configured to engage with a lifting mechanism to bring the valve into engagement with the filling or dispensing head, wherein the lip is arranged longitudinally between a seat of the valve and the axial end surface of the bottle.
Device for connecting at least a first and a second cable tray section (1A, 1B), which comprise each at least one bottom element (13; 131, 132) and first and second sidewalls (11, 12) on both sides adjoining thereto and which form, after their connection, coaxially aligned with a common cable tray axis (x) a cable tray, with a first and a second connecting plate (21; 22), which overlap the terminal regions of the first or second sidewalls (11; 12), respectively, of both cable tray sections (1A, 1B) that are facing one another and which comprise each a row of hooks (211; 221) that engage in wall openings (111; 121) provided in the sidewalls (11; 12) of the cable tray sections (1A, 1B), and which can be fixed each by means of at least one connecting element (23; 25; 2210), and that the hooks provided at the first connecting plate and the hooks provided at the second connecting plate are aligned at least approximately in parallel to the cable tray axis (x) and point in opposite directions, characterised in that the first connecting plate and the second connecting plate comprise each a preferably rectangular mounting opening (212; 222) at one end that is arranged in accordance with the grid spacing of the hooks (211; 221) and into which a connecting bolt is inserted, whose threaded shaft is guided through the related mounting opening (212; 222) and one of the wall openings (111; 121) in den sidewalls (11; 12) of the cable tray sections (1A, 1B) and is connected with a screw nut.
A computer-implemented method for equalization of hydrocarbon reservoir pressure, comprising: executing a hydrocarbon reservoir model simulation to distribute gas among available gas injectors associated with a hydrocarbon reservoir; using the result of the executed hydrocarbon reservoir simulation, executing streamline tracing to calculate hydrocarbon flow fields; using the results of the executed hydrocarbon reservoir simulation and the executed streamline tracing, executing (110, 200) a reservoir pressure equalization, i.e., RPE, algorithm to distribute an amount of gas according to an injection strategy to satisfy an assigned voidage replace ratio, i.e., VRR, for each region (604, 606, 608, 610, 612, 614, 616, 618)of the hydrocarbon reservoir; performing post-processing of the results of the RPE algorithm; and using the result of the post-processing, performing gas injection in the hydrocarbon reservoir with the available gas injectors. executing a hydrocarbon reservoir model simulation to distribute gas among available gas injectors associated with a hydrocarbon reservoir; using the result of the executed hydrocarbon reservoir simulation, executing streamline tracing to calculate hydrocarbon flow fields; using the results of the executed hydrocarbon reservoir simulation and the executed streamline tracing, executing (110, 200) a reservoir pressure equalization, i.e., RPE, algorithm to distribute an amount of gas according to an injection strategy to satisfy an assigned voidage replace ratio, i.e., VRR, for each region (604, 606, 608, 610, 612, 614, 616, 618)of the hydrocarbon reservoir; performing post-processing of the results of the RPE algorithm; and using the result of the post-processing, performing gas injection in the hydrocarbon reservoir with the available gas injectors.
A method for making a wound dressing comprising: a. providing a first layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, and at least one bacteria reducing active ingredient; b. providing a second layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, a silver compound, and at least one bacteria reducing active ingredient; and c. combining the first layer and the second layer to form the wound dressing composition, wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is independently selected from the group consisting of citric acid, acetic acid, or any pharmaceutically acceptable salt thereof, and any combination thereof, and wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is mixed with a solvent, wherein the solvent is a (C 1 -C 3)alcohol. a. providing a first layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, and at least one bacteria reducing active ingredient; b. providing a second layer comprising an effective amount of a homogeneous mixture of a collagen, an oxidized cellulose, a silver compound, and at least one bacteria reducing active ingredient; and c. combining the first layer and the second layer to form the wound dressing composition, wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is independently selected from the group consisting of citric acid, acetic acid, or any pharmaceutically acceptable salt thereof, and any combination thereof, and wherein the at least one bacteria reducing active ingredient of each of the first layer and of the second layer is mixed with a solvent, wherein the solvent is a (C 1 -C 3)alcohol.
A method of alerting a user equipment, UE, to an overcrowding situation by a network entity (120, 181, 191, 602, 610), the method comprising the network entity: storing UE identifiers and region identifiers for multiple UEs; for each region identifier, determining a number of UEs in a spatial region (902, 904, 906) associated with the region identifier; comparing the determined number of UEs for a region identifier to a first threshold value; if the determined number of UEs in the spatial region exceeds the first threshold value: broadcasting a first message including a warning message indicator to UEs in the spatial region (902, 904, 906), the warning message indicator providing an indication of warning message parameters; and based on the warning message parameters, broadcasting a second message to the UEs in the spatial region (902, 904, 906), characterized by the second message including a crowd-indicator tag for including in Bluetooth identifiers of the UEs in the spatial region (902, 904, 906) and a second threshold value for comparison against a count of Bluetooth identifiers that include the crowd-indicator tag. storing UE identifiers and region identifiers for multiple UEs; for each region identifier, determining a number of UEs in a spatial region (902, 904, 906) associated with the region identifier; comparing the determined number of UEs for a region identifier to a first threshold value; if the determined number of UEs in the spatial region exceeds the first threshold value: broadcasting a first message including a warning message indicator to UEs in the spatial region (902, 904, 906), the warning message indicator providing an indication of warning message parameters; and based on the warning message parameters, broadcasting a second message to the UEs in the spatial region (902, 904, 906), characterized by the second message including a crowd-indicator tag for including in Bluetooth identifiers of the UEs in the spatial region (902, 904, 906) and a second threshold value for comparison against a count of Bluetooth identifiers that include the crowd-indicator tag. broadcasting a first message including a warning message indicator to UEs in the spatial region (902, 904, 906), the warning message indicator providing an indication of warning message parameters; and based on the warning message parameters, broadcasting a second message to the UEs in the spatial region (902, 904, 906), characterized by the second message including a crowd-indicator tag for including in Bluetooth identifiers of the UEs in the spatial region (902, 904, 906) and a second threshold value for comparison against a count of Bluetooth identifiers that include the crowd-indicator tag.
Power distributor, in particular for an on-board network of a motor vehicle, comprising two power outputs, an intermediate tap and a respective switching unit for each power output with a switch for blocking the associated power output as required, wherein - each of these switching units is designed in such a way that the associated power output is blocked if in the event of a voltage drop below a first setpoint value at the associated power output and/or at the intermediate tap a fault situation is detected, wherein the blocking of the associated power output takes place the faster the higher the corresponding voltage drop is, - each of said switching units is linked to a voltage monitoring unit, by means of which the voltages at the power outputs and/or the voltage at the intermediate tap are monitored, or wherein each of these switching units comprises a voltage monitoring unit, by means of which the voltage at the associated power output and/or at the intermediate tap is monitored and - a delay element is connected upstream of each voltage monitoring unit, so that a voltage drop at the associated power output and/or at the intermediate tap causes a voltage drop with a modified time characteristic at the respective voltage monitoring unit. - each of these switching units is designed in such a way that the associated power output is blocked if in the event of a voltage drop below a first setpoint value at the associated power output and/or at the intermediate tap a fault situation is detected, wherein the blocking of the associated power output takes place the faster the higher the corresponding voltage drop is, - each of said switching units is linked to a voltage monitoring unit, by means of which the voltages at the power outputs and/or the voltage at the intermediate tap are monitored, or wherein each of these switching units comprises a voltage monitoring unit, by means of which the voltage at the associated power output and/or at the intermediate tap is monitored and - a delay element is connected upstream of each voltage monitoring unit, so that a voltage drop at the associated power output and/or at the intermediate tap causes a voltage drop with a modified time characteristic at the respective voltage monitoring unit.
Aircraft comprising a fuel cell and an air supply device for supplying air for operating the fuel cell and for cooling a heat exchanger connected to the fuel cell, the aircraft having at least one air duct,the cross section of which widens in the flow direction of the air downstream of an air inlet opening in at least one region of the circumferential surface, characterized in that the air duct has at least one through-flow opening in the at least one widening region of the circumferential surface, through which air can be discharged for operating the fuel cell.
Process for preparing chlorosilanes in a fluidized-bed reactor by reaction of a reaction gas containing silicon tetrachloride and hydrogen with a particulate contact composition containing silicon and a catalyst, wherein the chlorosilanes have the general formula H n SiCl 4-n and/or H m Cl 6-m Si 2 where n = 1-4 and m = 0-4 and wherein the hydraulic diameter d hyd of the fluidized-bed reactor, the superficial velocity u L of the gas in the fluidized-bed reactor and the Sauter diameter d 32 of the particulate contact composition are selected so that points are imaged on an area in which the Archimedes number Ar is plotted against the Reynolds number Re in a cartesian coordinate system, wherein the area is defined by the equations 2a and 2b: Ar = 5 ⋅ 10 − 9 ⋅ Re 2 + 4,8 ⋅ 10 − 3 ⋅ Re − 102 Ar = 1 ⋅ 10 − 9 ⋅ Re 2 + 1,1 ⋅ 10 − 2 ⋅ Re − 10774 with a lower limit Ar = 0.3 and an upper limit Ar = 3000, wherein Ar is determined by means of equation 3 Ar = g ⋅ d 32 3 υ F 2 ⋅ ρ P − ρ F ρ F and g is the acceleration due to gravity [m/s 2], d 32 is the Sauter diameter of the particles [m], ρ P is the solids density of the particles [kg/m 3], ρ F is the fluid density [kg/m 3], ν F is the kinematic viscosity of the fluid [m 2 /s], wherein Re is determined by means of equation 4 Re = u L ⋅ d hyd υ F and u L is the superficial velocity of the gas [m/s] and d hyd is the hydraulic diameter [m], wherein d hyd is determined by means of equation 5 d hyd = 4 ∗ A q, free U total, wetted and A q, free corresponds to the free flow cross section [m 2] in the fluidized-bed reactor and U total, wetted corresponds to the wetted perimeter [m] of all internals in the fluidized-bed reactor, wherein d hyd is 0.1 to 24 m, u L is 0.05 to 0.6 m/s and d 32 is 5 to 500 μm. g is the acceleration due to gravity [m/s 2], d 32 is the Sauter diameter of the particles [m], ρ P is the solids density of the particles [kg/m 3], ρ F is the fluid density [kg/m 3], ν F is the kinematic viscosity of the fluid [m 2 /s], u L is the superficial velocity of the gas [m/s] and d hyd is the hydraulic diameter [m], A q, free corresponds to the free flow cross section [m 2] in the fluidized-bed reactor and U total, wetted corresponds to the wetted perimeter [m] of all internals in the fluidized-bed reactor,
An adjustable orthopedic tool comprising: a shaft portion having first and second ends (220, 240) and a longitudinal axis, an adjustment portion and a fastener receiving portion, the first end comprising a cutting portion configured to drill a hole in bone, and the second end configured to be coupled to a source of rotational motion; a fastener engaging portion; and an adjustment mechanism mounted on the shaft and configured to allow the user to vary a distance (td) between the cutting portion and the fastener engaging portion; wherein the fastener receiving portion is configured to receive at least a portion of a cannulated fastener thereon; the fastener engaging portion is configured to rotationally couple the tool to a driving portion of the cannulated fastener to transmit rotational motion thereto; and the adjustment mechanism is selectively movable along the longitudinal axis of the shaft to allow the tool to accept fasteners having different lengths, characterized in that the adjustment portion of the shaft further comprises external threads and the adjustment mechanism further comprises internal threads, wherein the threads (250, 329) are engageable to allow the shaft and adjustment mechanism to be moved axially along the longitudinal axis of the shaft by rotating the shaft and adjustment mechanism with respect to each other. a shaft portion having first and second ends (220, 240) and a longitudinal axis, an adjustment portion and a fastener receiving portion, the first end comprising a cutting portion configured to drill a hole in bone, and the second end configured to be coupled to a source of rotational motion; a fastener engaging portion; and an adjustment mechanism mounted on the shaft and configured to allow the user to vary a distance (td) between the cutting portion and the fastener engaging portion; wherein the fastener receiving portion is configured to receive at least a portion of a cannulated fastener thereon; the fastener engaging portion is configured to rotationally couple the tool to a driving portion of the cannulated fastener to transmit rotational motion thereto; and the adjustment mechanism is selectively movable along the longitudinal axis of the shaft to allow the tool to accept fasteners having different lengths, characterized in that the adjustment portion of the shaft further comprises external threads and the adjustment mechanism further comprises internal threads, wherein the threads (250, 329) are engageable to allow the shaft and adjustment mechanism to be moved axially along the longitudinal axis of the shaft by rotating the shaft and adjustment mechanism with respect to each other.