mhurhangee/ep-ind-claims huggingface dataset:
A magnetic fluid sealed bearing comprising: an inner ring; an outer ring; a plurality of rolling members placed between the inner and outer rings; and a ring-shaped magnet disposed in an opening between the inner and outer rings to retain a magnetic fluid for sealing the plurality of rolling members, the ring-shaped magnet being magnetized such that their magnetic poles point to an axial direction; a ring-shaped outer and inner polar plates sandwiching the ring-shaped magnet therebetween, one side of the polar plates being fixed to one of the inner ring and the outer ring, and the other side of the polar plates facing a clearance; an outer ring magnetic fluid retained in at least one of between the outer ring and the outer polar plate, between the outer ring and the inner polar plate, and between the outer ring and the magnet; and an inner ring magnetic fluid retained in at least one of between the inner ring and the outer polar plate, between the inner ring and the inner polar plate, and between the inner ring and the magnet characterized by a step for retaining a magnetic fluid is formed on the inner ring or the outer ring in a clearance with the outer polar plate such that an edge of the step is positioned within an axial thickness of the outer polar plate. an inner ring; an outer ring; a plurality of rolling members placed between the inner and outer rings; and a ring-shaped magnet disposed in an opening between the inner and outer rings to retain a magnetic fluid for sealing the plurality of rolling members, the ring-shaped magnet being magnetized such that their magnetic poles point to an axial direction; a ring-shaped outer and inner polar plates sandwiching the ring-shaped magnet therebetween, one side of the polar plates being fixed to one of the inner ring and the outer ring, and the other side of the polar plates facing a clearance; an outer ring magnetic fluid retained in at least one of between the outer ring and the outer polar plate, between the outer ring and the inner polar plate, and between the outer ring and the magnet; and an inner ring magnetic fluid retained in at least one of between the inner ring and the outer polar plate, between the inner ring and the inner polar plate, and between the inner ring and the magnet characterized by a step for retaining a magnetic fluid is formed on the inner ring or the outer ring in a clearance with the outer polar plate such that an edge of the step is positioned within an axial thickness of the outer polar plate.
An injection molding method to form a pet chew article, the injection molding method comprising: providing an injection mold including at least one molding cavity to form the pet chew article; providing a first polymer composition, the first polymer composition having a first polymer composition color; providing a second polymer composition, the second polymer composition having a second polymer composition color different from the first polymer composition color, wherein a color difference between the first polymer composition and the second polymer composition has a CIE 1976 L*a*b* color space delta-E value of at least 3.0; plasticizing the first polymer composition with heat in a first plasticizing injection unit, wherein the first plasticizing injection unit comprises a first reciprocating screw plasticizing injection unit; plasticizing the second polymer composition with heat in a second plasticizing injection unit, wherein the second plasticizing injection unit comprises a second reciprocating screw plasticizing injection unit; injecting the first polymer composition and the second polymer composition into the at least one molding cavity to form the pet chew article such that the first polymer composition and the second polymer composition mix and form a heterogeneous mixture; forming the pet chew article from the heterogeneous mixture of the first polymer composition and the second polymer composition such that an outer surface of the pet chew article is variegated, wherein the variegated outer surface is formed of a plurality of regions with each region having a different color. providing an injection mold including at least one molding cavity to form the pet chew article; providing a first polymer composition, the first polymer composition having a first polymer composition color; providing a second polymer composition, the second polymer composition having a second polymer composition color different from the first polymer composition color, wherein a color difference between the first polymer composition and the second polymer composition has a CIE 1976 L*a*b* color space delta-E value of at least 3.0; plasticizing the first polymer composition with heat in a first plasticizing injection unit, wherein the first plasticizing injection unit comprises a first reciprocating screw plasticizing injection unit; plasticizing the second polymer composition with heat in a second plasticizing injection unit, wherein the second plasticizing injection unit comprises a second reciprocating screw plasticizing injection unit; injecting the first polymer composition and the second polymer composition into the at least one molding cavity to form the pet chew article such that the first polymer composition and the second polymer composition mix and form a heterogeneous mixture; forming the pet chew article from the heterogeneous mixture of the first polymer composition and the second polymer composition such that an outer surface of the pet chew article is variegated, wherein the variegated outer surface is formed of a plurality of regions with each region having a different color.
A method for scheduling commands for processing by a storage device (102, 202, 226), the method comprising: receiving and storing a command from an application in a software queue (104-108, 212a, 212b); obtaining information on a hardware resources (116, 402) managed by the storage device (102, 202, 226); synchronizing a software resources (110, 400) based on the information on the hardware resources (116, 402); allocating the software resources (110, 400) into a shared pool and a reserved pool, wherein the shared pool is shared by the software queue (104-108, 212a, 212b) and a hardware queue (112-114, 220a-c), and the reserved pool is reserved for the software queue (104-108, 212a, 212b); determining a condition of the software resources (110, 400) in the shared pool, wherein the condition is availability of the software resources (110, 400) in the shared pool; allocating, to the command, one of the software resources (110, 400) in the shared pool, based on a first determination of the condition that there are software resources in the shared pool to be assigned to the command; and allocating, to the command, one of the software resources (110, 400) in the reserved pool, based on a second determination of the condition that is different from the first determination, wherein, based on the allocating of the one of the software resources (110, 400), the command is stored in the hardware queue (112-114, 220a-c) associated with the storage device (102, 202, 226) for processing by the storage device (102, 202, 226). receiving and storing a command from an application in a software queue (104-108, 212a, 212b); obtaining information on a hardware resources (116, 402) managed by the storage device (102, 202, 226); synchronizing a software resources (110, 400) based on the information on the hardware resources (116, 402); allocating the software resources (110, 400) into a shared pool and a reserved pool, wherein the shared pool is shared by the software queue (104-108, 212a, 212b) and a hardware queue (112-114, 220a-c), and the reserved pool is reserved for the software queue (104-108, 212a, 212b); determining a condition of the software resources (110, 400) in the shared pool, wherein the condition is availability of the software resources (110, 400) in the shared pool; allocating, to the command, one of the software resources (110, 400) in the shared pool, based on a first determination of the condition that there are software resources in the shared pool to be assigned to the command; and allocating, to the command, one of the software resources (110, 400) in the reserved pool, based on a second determination of the condition that is different from the first determination, wherein, based on the allocating of the one of the software resources (110, 400), the command is stored in the hardware queue (112-114, 220a-c) associated with the storage device (102, 202, 226) for processing by the storage device (102, 202, 226).
A solar module comprising: a plurality of super cells arranged in physically parallel rows, each super cell comprising a plurality of solar cells arranged with opposing edges of adjacent solar cells overlapping and conductively bonded to each other to electrically connect the solar cells of a respective super cell in series, wherein the super cells are electrically connected in parallel, each super cell being electrically segmented into a plurality of super cell segments by hidden tap interconnects at intermediate locations along a super cell while maintaining a physically continuous super cell, said hidden tap interconnects electrically interconnecting in parallel adjacent super cell segments thereby forming groups of parallel connected super cell segments, wherein each interconnect spans a gap between two super cells in adjacent rows and is conductively bonded to at least one hidden tap contact pad (3320, 3325) on the back surface of one super cell and to at least another hidden tap contact pad (3320, 3325) on the back surface of the other super cell, and wherein bypass diodes (1300A-1300C) are located along the center line of the solar module, in a gap between adjacent first and second super cells and in-plane with the first and second super cells, each super cell segment being connected in parallel with one corresponding bypass diode (1300A-1300C) wherein an electrical conductor runs along the center line in-plane with the first and second super cells and connects to each bypass diode in a region between the first and second super cells segment. a plurality of super cells arranged in physically parallel rows, each super cell comprising a plurality of solar cells arranged with opposing edges of adjacent solar cells overlapping and conductively bonded to each other to electrically connect the solar cells of a respective super cell in series, wherein the super cells are electrically connected in parallel, each super cell being electrically segmented into a plurality of super cell segments by hidden tap interconnects at intermediate locations along a super cell while maintaining a physically continuous super cell, said hidden tap interconnects electrically interconnecting in parallel adjacent super cell segments thereby forming groups of parallel connected super cell segments, wherein each interconnect spans a gap between two super cells in adjacent rows and is conductively bonded to at least one hidden tap contact pad (3320, 3325) on the back surface of one super cell and to at least another hidden tap contact pad (3320, 3325) on the back surface of the other super cell, and wherein bypass diodes (1300A-1300C) are located along the center line of the solar module, in a gap between adjacent first and second super cells and in-plane with the first and second super cells, each super cell segment being connected in parallel with one corresponding bypass diode (1300A-1300C) wherein an electrical conductor runs along the center line in-plane with the first and second super cells and connects to each bypass diode in a region between the first and second super cells segment.
A method for continuously casting steel, the method comprising supplying molten steel into a mold while applying an electromagnetic brake to an outlet flow discharged from an outlet port of an immersion nozzle, the mold used being a funnel mold with short sides and long sides on a horizontal cross-section, in which a distance between the long sides facing each other in the mold at a middle of each long side is enlarged than a distance between the long sides at ends of the long sides, and Dmax/D0 is 1.16 to 1.24 wherein magnetic flux density of the electromagnetic brake is within a range of the following (Formula 1): B min ≤ B ≤ B max wherein B min = 800 ⋅ D max D 0 3 ⋅ H SEN H 0 v ⋅ sin θ, B max = 3000 ⋅ D max D 0 3 ⋅ H SEN H 0 v ⋅ sin θ 2, Do = a mold thickness (m) of the mold having short sides and long sides on a horizontal cross-sectional shape, the mold thickness measured as a distance between the long sides facing each other in the mold at ends of the long sides, D max = a maximum value of a mold thickness (m) of the mold having the short sides and the long sides on the horizontal cross-sectional shape, the maximum value measured as a distance between the long sides facing each other in the mold at a middle of each long side, H 0 = a distance (m) between a surface of the molten steel and a center of an electromagnetic brake coil in a vertical direction, H SEN = a distance (m) between a bottom surface of the immersion nozzle and the center of the electromagnetic brake coil in the vertical direction, v = a flow velocity (m/s) of the molten steel discharged from the immersion nozzle, and θ = an outlet flow angle (°) of the molten steel. Do = a mold thickness (m) of the mold having short sides and long sides on a horizontal cross-sectional shape, the mold thickness measured as a distance between the long sides facing each other in the mold at ends of the long sides, D max = a maximum value of a mold thickness (m) of the mold having the short sides and the long sides on the horizontal cross-sectional shape, the maximum value measured as a distance between the long sides facing each other in the mold at a middle of each long side, H 0 = a distance (m) between a surface of the molten steel and a center of an electromagnetic brake coil in a vertical direction, H SEN = a distance (m) between a bottom surface of the immersion nozzle and the center of the electromagnetic brake coil in the vertical direction, v = a flow velocity (m/s) of the molten steel discharged from the immersion nozzle, and θ = an outlet flow angle (°) of the molten steel.
A method, comprising: identifying at least a first application hosted on a computing system; inspecting one or more configuration files associated with the first application to identify one or more configuration settings that specify how the first application communicates with one or more second applications; and generating a process-aware whitelist that specifies expected network communications activity for the first application, based on the configuration settings, wherein an entry in the process-aware whitelist specifies a process path for a network connection, wherein the process path includes a source process and a destination process of the network connection, and wherein the entry in the process-aware whitelist further specifies: a process hierarchy for the source process of the network connection; a process hierarchy for the destination process of the network connection; and at least one of a command line argument associated with the first application or a user group associated with a user of the first application. identifying at least a first application hosted on a computing system; inspecting one or more configuration files associated with the first application to identify one or more configuration settings that specify how the first application communicates with one or more second applications; and generating a process-aware whitelist that specifies expected network communications activity for the first application, based on the configuration settings, wherein an entry in the process-aware whitelist specifies a process path for a network connection, wherein the process path includes a source process and a destination process of the network connection, and wherein the entry in the process-aware whitelist further specifies: a process hierarchy for the source process of the network connection; a process hierarchy for the destination process of the network connection; and at least one of a command line argument associated with the first application or a user group associated with a user of the first application. a process hierarchy for the source process of the network connection; a process hierarchy for the destination process of the network connection; and at least one of a command line argument associated with the first application or a user group associated with a user of the first application.
An oral care appliance, comprising: a fluid pump assembly; a source of liquid; a source of gas, wherein the fluid pump assembly is in operative communication with the sources of liquid and gas to produce a series of gas-injected fluid pulses output via at least one orifice (83,94) of a nozzle exit assembly from which the series of gas-injected fluid pulses can be directed to a user's teeth, characterised in that the oral care apparatus further comprises a microcontroller (80,148) wherein the microcontroller is programmed to control an operation of the fluid pump assembly to produce individual pulses of the series of gas-injected fluid pulses effective against biofilm on teeth that have a pulse width within a range of 0.001-0.5 seconds, a pulse height from 0.1-10 Newtons, a rise/fall time range of 0.5-250 ms, a repetition rate in a range of 2Hz to 20Hz, and a gas/liquid mixture range from 40-95% volume to volume, gas to liquid. a fluid pump assembly; a source of liquid; a source of gas, wherein the fluid pump assembly is in operative communication with the sources of liquid and gas to produce a series of gas-injected fluid pulses output via at least one orifice (83,94) of a nozzle exit assembly from which the series of gas-injected fluid pulses can be directed to a user's teeth, characterised in that the oral care apparatus further comprises a microcontroller (80,148) wherein the microcontroller is programmed to control an operation of the fluid pump assembly to produce individual pulses of the series of gas-injected fluid pulses effective against biofilm on teeth that have a pulse width within a range of 0.001-0.5 seconds, a pulse height from 0.1-10 Newtons, a rise/fall time range of 0.5-250 ms, a repetition rate in a range of 2Hz to 20Hz, and a gas/liquid mixture range from 40-95% volume to volume, gas to liquid.
Crosslinked hyaluronic acid gel which derives from the crosslinking of hyaluronic acid or of a salt thereof in the presence of at least an effective amount of at least one endogenous polyamine as a crosslinking agent, said crosslinking being carried out under conditions favourable to the covalent coupling of said hyaluronic acid and of said endogenous polyamine(s), said gel having a degree of modification of less than or equal to 1%, the degree of modification being the ratio between the number of moles of endogenous polyamine attaches to the hyaluronic acid and the number of moles of hyaluronic acid forming said crosslinked gel.
A TRIS-containing vinylic monomer, being represented by formula in which: q1 is an integer of from 6 to 20, preferably from 7 to 16, more preferably from 8 to 14; R 1 is hydrogen or methyl; R 2 is a diradical of an alkane or cycloalkane which comprises up to 20 carbon atoms and may have one or more ether, thio, amine, carbonyl, or amido linkages in the main chain.
A method for disinfecting or sterilizing an article or article part comprising the steps of enclosing the article or article part inside a sterilization chamber, admitting a biocide solution comprising a biocide dissolved in a solvent as a nebulant to a pre-chamber communicating with the sterilization chamber; said pre-chamber having a wall or part thereof which comprises a semipermeable fabric or membrane selected to allow vapour to pass from inside to outside of the pre-chamber while providing a barrier against entry of micro-organisms and against exit of nebulant particles; concentrating the biocide in the pre-chamber by removal of solvent at or above atmospheric pressure, to form a concentrated biocide, introducing the concentrated biocide as a liquid or a vapour or a combination thereof from the pre-chamber to the sterilization chamber; and wherein steps - are conducted at or above atmospheric pressure. enclosing the article or article part inside a sterilization chamber, admitting a biocide solution comprising a biocide dissolved in a solvent as a nebulant to a pre-chamber communicating with the sterilization chamber; said pre-chamber having a wall or part thereof which comprises a semipermeable fabric or membrane selected to allow vapour to pass from inside to outside of the pre-chamber while providing a barrier against entry of micro-organisms and against exit of nebulant particles; concentrating the biocide in the pre-chamber by removal of solvent at or above atmospheric pressure, to form a concentrated biocide, introducing the concentrated biocide as a liquid or a vapour or a combination thereof from the pre-chamber to the sterilization chamber; and wherein steps - are conducted at or above atmospheric pressure.
Accumulator with a plurality of accumulator cells (110, 120, 130, 140, 160, 170, 180, 190, 192, 194) which are arranged spaced apart from one another in an accumulator housing with a housing outer wall, said accumulator housing being at least partially filled with a filling material encasing the accumulator cells (110, 120, 130, 140, 160, 170, 180, 190, 192, 194), wherein a first accumulator cell has a first casing and a second accumulator cell has a second casing, wherein the first casing and the second casing have different wall thicknesses at least in sections, wherein the first accumulator cell has more directly adjacent accumulator cells (120, 140, 160, 170, 180) than the second accumulator cell, and the first accumulator cell and the second accumulator cell are each arranged adjacent to the housing outer wall, characterized in that the first casing has a smaller wall thickness towards the housing outer wall than the second casing.
Method for dry reforming of at least one alkane, carried out in at least one reaction chamber exposed to a stream of gas, characterised in that said at least one reaction chamber comprises a catalytic solid which is cyclically and alternatively exposed to a stream containing an alkane and to a stream containing carbon dioxide, such that said catalytic solid is used as an oxidation vector, wherein as a first step said solid reacts with said alkane to form carbon monoxide and dihydrogen and as a second step said solid reacts with carbon dioxide to recharge in oxygen and in that said catalytic solid consists of Me1 -Ox1 - Ox2 where: Me1 is an element that can not be oxidised in carbon dioxide; Ox1 is a reducible oxide in alkane and can be re-oxidised in carbon dioxide; Ox2 is an inert oxide with respect to said alkane and carbon dioxide, the ratio Ox2/(Me1+Ox1) ranging from 0 to 100 in mass proportion and in that Me1 is chosen from among the following elements taken alone or in combination: Ag, Au, Co, Cr, Ir, La, Mn, Ni, Os, Pd, Pt, Re, Rh, Ru, Sc, W, Mo.
Assembly comprising a portable object of small dimensions and a tool for actuating a corrective pushbutton fitted to said portable object of small dimensions, this actuation tool comprising a body which extends between a rear end defining a gripping zone of the actuation tool and a front end defining an actuation zone of the actuation tool, at least the front end of the actuation tool being magnetised, the portable object comprising a middle having an opening inside of which a corrective push-button is arranged, at least one element of the corrective push-button, or at least one portion of the middle of the portable object immediately surrounding the corrective push-button, being made of a ferromagnetic material or of a magnetised material, a first magnetic polarity of which is opposite to a second magnetic polarity of the magnetised actuation tool.